Abstract: A heating device and method for providing temperature control in an additive manufacturing processes. The heating device is positioned circumferentially about a print head and proximate a top layer of a printed object. An area of the top layer of the printed object is heated by directing energy from the heating device to the top layer as material is deposited from the print head onto the printed object. The directed energy applied to the printed object reduces distortion of the printed object caused by temperature gradients and improves the layer-to-layer bonding of the printed object.

Abstract: An ultrasonic sensor array assembly includes a substrate having a plurality of contact pads, and a plurality of ultrasonic elements supported on the substrate. Each of the plurality of ultrasonic elements is independently electrically connected to a respective one of the plurality of contact pads. The plurality of ultrasonic elements are configured to emit an electrically phased ultrasonic beam.

Abstract: A metal clad circuit board includes a metal substrate. A dielectric layer is applied to the metal substrate. A conductive seed layer is printed on the dielectric layer. A conductive circuit layer is plated onto the conductive seed layer. Optionally, the conductive seed layer may be inkjet printed on the dielectric layer. Alternatively, the conductive seed layer may be pad printed on the dielectric layer. Optionally, the dielectric layer may be powder coated to the metal substrate. The dielectric layer may include polymers and fillers compression molded to the metal substrate. Optionally, the conductive circuit layer may be electroplated to the conductive seed layer. Optionally, a solder mask may be applied over the conductive circuit layer.

Abstract: A metal clad circuit board includes a metal substrate. A dielectric layer is applied to the metal substrate. A conductive seed layer is printed on the dielectric layer. A conductive circuit layer is plated onto the conductive seed layer. Optionally, the conductive seed layer may be inkjet printed on the dielectric layer. Alternatively, the conductive seed layer may be pad printed on the dielectric layer. Optionally, the dielectric layer may be powder coated to the metal substrate. The dielectric layer may include polymers and fillers compression molded to the metal substrate. Optionally, the conductive circuit layer may be electroplated to the conductive seed layer. Optionally, a solder mask may be applied over the conductive circuit layer.

Abstract: An electrical connector adapter (40) is disclosed for electrically interconnecting a portable electronic component such as an MP3 player, CD player, or other portable device with sound or other equipment in a vehicle. The adapter (40) includes a one-piece insulating housing (60) having a system mating end (42) for interconnecting to a vehicle's electrical system and a component mating end (44) for interconnecting to a portable electrical component. Three electric contacts (62, 64, 68) are retained in three openings (90, 92, 94) respectively in the housing (60) and are arranged to electrically mate with a plug (54) of a portable electrical component.

Abstract: An electrical connector for mating with a conductive plate having a plate mounting edge, and first and second surfaces extending from the plate mounting edge is provided. The connector includes a contact having a contact mounting edge and a lead interface edge opposite the contact mounting edge. A first contact beam and a second contact beam extend from the contact mounting edge, and the first contact beam is configured to engage the first surface of the plate when passed over the plate mounting edge. The second contact beam is configured to engage the second surface of the plate when passed over the plate mounting edge, and the first and second contact beams are laterally offset from one another along the contact mounting edge. At least one lead contact extends from the lead interface edge, and the lead contact is configured to mate with a mating connector.

Abstract: A coaxial cable connector is provided for interconnecting coaxial cables having center and outer conductors. The coaxial cable connector includes inner and outer contracts configured to be securable to inner and outer conductors of coaxial cables. A connector housing has a cavity for receiving the inner contact. The outer contacts are secured to the connector housing. A coaxial cable displacement contact section connected to the outer contacts has at least one displacement beam and braid-receiving slot dimensioned to pierce the coaxial cable automatically when the outer conductors are mounted to the coaxial cable connector. The coaxial cable displacement contact section affords an automated and reliable technique for interconnecting contacts and outer coaxial cable conductors.

Abstract: A coaxial cable connector is provided for interconnecting coaxial cables having center and outer conductors. The coaxial cable connector utilizes a contact and shell arrangement defining a strip line geometry for the electric fields generated by signals passing through the coaxial cable connector. The contacts and shells may be formed with planar conductors aligned parallel to one another with a center conductive strip sandwiched between planar ground strips, all of which are separated by dielectric materials. The widths and thicknesses of the contact and ground planes, the spacing there between and the dielectric materials are manufacturable in an easy, reliable, and cost effective method.

Abstract: A coaxial cable connector is provided for interconnecting coaxial cables having center and outer conductors. The coaxial cable connector utilizes a contact and shell arrangement defining a strip line geometry for the electric fields generated by signals passing through the coaxial cable connector. The contacts and shells may be formed with planar conductors aligned parallel to one another with a center conductive strip sandwiched between planar ground strips, all of which are separated by dielectric materials. The widths and thicknesses of the contact and ground planes, the spacing there between and the dielectric materials are manufacturable in an easy, reliable, and cost effective method.

Abstract: A coaxial cable connector is provided for interconnecting coaxial cables having center and outer conductors. The coaxial cable connector includes inner and outer contracts configured to be securable to inner and outer conductors of coaxial cables. A connector housing has a cavity for receiving the inner contact. The outer contacts are secured to the connector housing. A coaxial cable displacement contact section connected to the outer contacts has at least one displacement beam and braid- receiving slot dimensioned to pierce the coaxial cable automatically when the outer conductors are mounted to the coaxial cable connector. The coaxial cable displacement contact section affords an automated and reliable technique for interconnecting contacts and outer coaxial cable conductors.

Abstract: A coaxial cable connector is provided for interconnecting coaxial cables having center and outer conductors. The coaxial cable connector utilizes a contact and shell arrangement defining a strip line geometry for the electric fields generated by signals passing through the coaxial cable connector. The contacts and shells may be formed with planar conductors aligned parallel to one another with a center conductive strip sandwiched between planar ground strips, all of which are separated by dielectric materials. The widths and thicknesses of the contact and ground planes, the spacing there between and the dielectric materials are manufacturable in an easy, reliable, and cost effective method.

Abstract: A coaxial cable connector is provided for interconnecting coaxial cables having center and outer conductors. The coaxial cable connector utilizes a contact and shell arrangement defining a strip line geometry for the electric fields generated by signals passing through the coaxial cable connector. The contacts and shells may be formed with planar conductors aligned parallel to one another with a center conductive strip sandwiched between planar ground strips, all of which are separated by dielectric materials. The widths and thicknesses of the contact and ground planes, the spacing there between and the dielectric materials are manufacturable in an easy, reliable, and cost effective method.

Abstract: A coaxial cable connector is provided for interconnecting coaxial cables having center and outer conductors. The coaxial cable connector utilizes a contact and shell arrangement defining a strip line geometry for the electric fields generated by signals passing through the coaxial cable connector. The contacts and shells may be formed with planar conductors aligned parallel to one another with a center conductive strip sandwiched between planar ground strips, all of which are separated by dielectric materials. The widths and thicknesses of the contact and ground planes, the spacing there between and the dielectric materials are manufacturable in an easy, reliable, and cost effective method.

Abstract: A coaxial cable connector is provided for interconnecting coaxial cables having center and outer conductors. The coaxial cable connector includes inner and outer contracts configured to be securable to inner and outer conductors of coaxial cables. A connector housing has a cavity for receiving the inner contact. The outer contacts are secured to the connector housing. A coaxial cable displacement contact section connected to the outer contacts has at least one displacement beam and braid-receiving slot dimensioned to pierce the coaxial cable automatically when the outer conductors are mounted to the coaxial cable connector. The coaxial cable displacement contact section affords an automated and reliable technique for interconnecting contacts and outer coaxial cable conductors.

Abstract: A cable strain relief is provided that includes a cable retention member and a cable support member matable with one another. The cable retention member has a retention body and at least one ribbed arm. The cable retention member also includes a cable grip configured to engage a cable. The cable support member has a support body that is configured to receive a cable along a cable retention passage therethrough. The channel in the cable support member frictionally receives and retains the arm on the cable retention member when the cable retention and support members are joined with one another. The cable grip is configured to securely engage at least a jacket of the cable to resist movement of the cable with respect to the cable support and retention members. Alternatively, different structures and positions for the cable grip may be provided. The cable grip may include a punch-out pattern of teeth in the retention body of the cable retention member.

Abstract: In accordance with at least one embodiment, a cable strain relief is provided that comprises a cable retention member and a cable support member matable with one another. The cable retention member has a retention body and at least one ribbed arm. The cable retention member also includes a cable grip configured to engage a cable. The cable support member has a support body that is configured to receive a cable along a cable retention passage therethrough. The channel in the cable support member frictionally receives and retains the arm on the cable retention member when the cable retention and support members are joined with one another. The cable grip is configured to securely engage at least a jacket of the cable to resist movement of the cable with respect to the cable support and retention members. Alternative embodiments of the present invention use different structures and positions for the cable grip.

Abstract: A coaxial cable connector is provided for interconnecting coaxial cables having center and outer conductors. The coaxial cable connector utilizes a contact and shell arrangement defining a strip line geometry for the electric fields generated by signals passing through the coaxial cable connector. The contacts and shells may be formed with planar conductors aligned parallel to one another with a center conductive strip sandwiched between planar ground strips, all of which are separated by dielectric materials. The widths and thicknesses of the contact and ground planes, the spacing there between and the dielectric materials are manufacturable in an easy, reliable, and cost effective method.

Abstract: A coaxial cable connector is provided for interconnecting coaxial cables having center and outer conductors. The coaxial cable connector includes inner and outer contracts configured to be securable to inner and outer conductors of coaxial cables. A connector housing has a cavity for receiving the inner contact. The outer contacts are secured to the connector housing. A coaxial cable displacement contact section connected to the outer contacts has at least one displacement beam and braid-receiving slot dimensioned to pierce the coaxial cable automatically when the outer conductors are mounted to the coaxial cable connector. The coaxial cable displacement contact section affords an automated and reliable technique for interconnecting contacts and outer coaxial cable conductors.

Abstract: An electrical edge connector housing (1), for mounting onto a printed circuit board substrate (100), has walls that form a plurality of slots (3) and a respective plurality of chambers (2). Each slot (3) is positioned on an opposite side of a substrate receiving groove (13) from a chamber (2). Each slot (3) and chamber (2) receives a contact (18) therein for connection to the substrate (101) received within the groove (13). A retention clip (40) cooperates with an alignment block (50) to align and retain the substrate (101) within the housing (1).

Abstract: An adapter assembly (20) for electrical connection between a small outline integrated circuit (SOIC) (25) and a remote receptacle connector (87) via a cable including a plurality of electrical conductors (23) comprises a nonconductive adapter housing (21) providing a plurality of spaced-apart slots (39) for receiving a plurality of contacts (22). The SOIC (25) being received in a cavity (50) at the bottom of the adapter housing (21), is retained within the cavity (50) by retention teeth (57) engaging respective side retention areas (54) located between each two adjacent leads (24) of the SOIC (25), and by a pair of retention members (55) engaging respective end retention areas (56) of the SOIC (25). A removable clip (26) is locked over the adapter housing (21). Each contact (22) being received in the respective slot (39), engages a respective lead (24) of the SOIC (25) by its lower portion (61). An upper portion (62) of each contact (22) terminates the respective electrical conductor (23).