Abstract: A test socket assembly for a semiconductor device used for burn-in testing comprising a base assembly, a floating plate coupled to the base assembly, and a latch assembly mounted on the floating plate for the retention and movement of the semiconductor device. The base assembly further includes a pin assembly for electrically coupling to the semiconductor device for burn-in testing and at least two upstanding flex arms. In addition, the floating plate and the latch assembly move to a test position for accommodating a varying height of the semiconductor device when mating with a test fixture while the latch still effectively retains the semiconductor device. Lastly, the floating plate is held in a fixed load position due to the support provided by the upstanding flex arms when inserting the semiconductor device into the test socket.

Abstract: A test socket assembly for a semiconductor device used for burn-in testing comprising a base assembly, a floating plate coupled to the base assembly, and a latch assembly mounted on the floating plate for the retention and movement of the semiconductor device. The base assembly further includes a pin assembly for electrically coupling to the semiconductor device for burn-in testing and at least two upstanding flex arms. In addition, the floating plate and the latch assembly move to a test position for accommodating a varying height of the semiconductor device when mating with a test fixture while the latch still effectively retains the semiconductor device. Lastly, the floating plate is held in a fixed load position due to the support provided by the upstanding flex arms when inserting the semiconductor device into the test socket.

Abstract: A socket apparatus comprises a base portion defining an array of contact cavities. A plurality of contacts are inserted into the array of contact cavities defined in the base portion. The base portion includes a top side and a bottom side and a plurality of ribs extending from the bottom side. Each rib defines at least one sidewall that engages with an anchor of a contact to securely mount the contact. Each contact includes a mounting portion having a first anchor and a second anchor extending from the mounting portion and operable to engage a mounting surface of the base portion to securely mount the contact. The first anchor provides a first anchor force for the contact to the base portion that is substantially greater than a second anchor force provided by the second anchor to the base portion.

Abstract: A socket apparatus comprises a base portion defining an array of contact cavities. A plurality of contacts are inserted into the array of contact cavities defined in the base portion. The base portion includes a top side and a bottom side and a plurality of ribs extending from the bottom side. Each rib defines at least one sidewall that engages with an anchor of a contact to securely mount the contact. Each contact includes a mounting portion having a first anchor and a second anchor extending from the mounting portion and operable to engage a mounting surface of the base portion to securely mount the contact. The first anchor provides a first anchor force for the contact to the base portion that is substantially greater than a second anchor force provided by the second anchor to the base portion.

Abstract: A protective device (3) for a hermetic type electromotively driven compressor (1a) includes a protector assembly (30) having a housing (32) with an electric current fuse (34) which detects a predetermined over-current. The housing (32) comprises an electrically insulating skirt member (31) formed so as to block a conductive part on the side facing an external connection terminal. By forming the electrically insulating skirt member (31) of housing (32) for a hermetic type electromotively driven compressor, insulation distance between a conductive part such as the electric current fuse (34) and an external conductive part such as a metal wall part (21) is set to be 9.5 mm or more.

Abstract: A protective device (3) for a hermetic type electromotively driven compressor (1a) includes a protector assembly (30) having a housing (32) with an electric current fuse (34) which detects a predetermined over-current. The housing (32) comprises an electrically insulating skirt member (31) formed so as to block a conductive part on the side facing an external connection terminal. By forming the electrically insulating skirt member (31) of housing (32) for a hermetic type electromotively driven compressor, insulation distance between a conductive part such as the electric current fuse (34) and an external conductive part such as a metal wall part (21) is set to be 9.5 mm or more.

Abstract: A terminal connector (10, 60, 80, 100, 120, 142) for connecting a lead wire to a terminal which is a component of a current path so that the current path will be established. The terminal connector has a lead wire attachment portion (12, 62, 82, 102, 122, 144) which is fixed to the terminal connector with continuity maintained with respect to the lead wire, a terminal mounting portion (13, 63, 83, 103, 123, 143) mounted on the terminal, a fuse portion (14, 64, 84, 104, 124, 145) which electrically connects the lead wire fixing portion and the terminal mounting portion to each other and which melts at a predetermined overcurrent, and a reinforcement portion (15, 85, 105, 125, 146) which protects the fuse portion against external forces.

Abstract: Motor protection for air conditioning and refrigeration compressors includes in a first embodiment a cluster block (22) having a seat for a hermetic motor protector (24, 24') and mounting a combination terminal/fusible link (26/26d, 26d') in which the motor protector and combination terminal/fusible link can be exposed to cooling fluid contained in the compressor container and the cluster block is mounted on a lead-through pin (18a) of a header (18) in the container wall. In a second embodiment the cluster block (30) is mounted on all three pins (18a, 18b, 18c) of header (18) with pin connectors received in parallel extending channels (30a, 30b, 30c) of the cluster block. In another embodiment the cluster block (40) is irregular in configuration in order to accommodate available space in certain compressor containers and has a lid (40g) to enclose the motor protector.

Abstract: A compact protector device having a housing 10 with a fixed electrode 18 and terminal member 12 and a movable electrode 26 and terminal member 14 contained therein. The movable electrode 26 includes a thermostatic bimetal member 26a with a movable contact 28 attached thereto positioned to engage and disengage with a fixed contact 20 attached to the fixed electrode 18 upon action of the bimetal member 26c. A positive temperature coefficient (PTC) element 24 is positioned in direct heat transfer relationship with the bimetal member 26c and electrically connected between the fixed and movable electrodes 18, 26. The protector further includes an insulating member 22 for compressively holding the movable electrode 26 in electrical contact with the PTC element 24 and forming a fulcrum point for action of said bimetal member 26c.