Abstract: A method for forming a solar cell including steps of (1) providing a semiconductor wafer having an upper surface; (2) applying an electrical contact material to the upper surface, the electrical contact material forming an electrically conductive grid that includes grid lines extending from a bus bar; (3) forming an isolation channel in the semiconductor wafer to define a solar cell portion and a wing portion, wherein the wing portion is electrically isolated from the solar cell portion, and wherein the wing portion is substantially free of the electrical contact material; (4) submerging the semiconductor wafer in a solvent, wherein formation of metal dendrites on the grid lines of the electrically conductive grid is inhibited; and (5) separating the solar cell portion from the wing portion.

Abstract: A method for forming a solar cell including steps of (1) providing a semiconductor wafer having an upper surface; (2) applying an electrical contact material to the upper surface, the electrical contact material forming an electrically conductive grid that includes grid lines extending from a bus bar; (3) forming an isolation channel in the semiconductor wafer to define a solar cell portion and a wing portion, wherein the wing portion is electrically isolated from the solar cell portion, and wherein the wing portion is substantially free of the electrical contact material; (4) submerging the semiconductor wafer in a solvent, wherein formation of metal dendrites on the grid lines of the electrically conductive grid is inhibited; and (5) separating the solar cell portion from the wing portion.

Abstract: A method for forming a solar cell including steps of (1) providing a semiconductor wafer having an upper surface; (2) applying an electrical contact material to the upper surface, the electrical contact material forming an electrically conductive grid that includes grid lines extending from a bus bar; (3) forming an isolation channel in the semiconductor wafer to define a solar cell portion and a wing portion, wherein the wing portion is electrically isolated from the solar cell portion, and wherein the wing portion is substantially free of the electrical contact material; (4) submerging the semiconductor wafer in a solvent, wherein formation of metal dendrites on the grid lines of the electrically conductive grid is inhibited; and (5) separating the solar cell portion from the wing portion.

Abstract: A method for forming a solar cell including steps of (1) providing a semiconductor wafer having an upper surface; (2) applying an electrical contact material to the upper surface, the electrical contact material forming an electrically conductive grid that includes grid lines extending from a bus bar; (3) forming an isolation channel in the semiconductor wafer to define a solar cell portion and a wing portion, wherein the wing portion is electrically isolated from the solar cell portion, and wherein the wing portion is substantially free of the electrical contact material; (4) submerging the semiconductor wafer in a solvent, wherein formation of metal dendrites on the grid lines of the electrically conductive grid is inhibited; and (5) separating the solar cell portion from the wing portion.

Abstract: A solar cell assembly including a semiconductor wafer having a solar cell portion and a wing portion, wherein the wing portion is electrically isolated from the solar cell portion, and an electrical contact material positioned on the solar cell portion, wherein the wing portion is substantially free of the electrical contact material.

Abstract: The second connector 2 has an inner housing 4 and an outer housing 5 that covers the outer peripheries of the inner housing 4, forming a gap S1 for insertion of the first connector 14 therebetween. A receiving cavity S2 is provided for insertion of the mating sensing member 8, and inside which is provided a pair of first stopper projections 51, a second stopper projections 52 and an elastically deformable locking arm 7, front end of which is a free extremity. The locking arm 7 is provides at the front end portion 7C with a pushing portion 72 and a first stopper 74 on each of the two sides. The mating sensing member 8 has a pair of elastically deformable first and second fingers 8A, 8B positioned opposing each other in parallel and they have an actuation portion 80 and a stopper engaging portion 8D.

Abstract: A connector position assurance device includes a base panel member and a latch assembly connected to and extending perpendicularly and forwardly from the base panel member. The latch assembly has a first flexible arm and a second flexible arm disposed in a juxtaposed manner relative to one another on opposing sides of a longitudinal axis. Each one of the first and second flexible arms is operative to move between a normal relaxed state and a flexed state generally in a lateral direction with the first and second flexible arms being resiliently biased to the normal relaxed state. The first flexible arm has a talon portion at a first flexible arm distal end thereof and the second flexible arm has a guiding projection at a second flexible arm distal end thereof. A connector assembly apparatus includes a first connector housing, a second connector housing and the connector position assurance device.

Abstract: An electrical connector includes a first connector part that has a male housing with an engaging portion formed on the outer periphery thereof; a second connector part 2 that has a female housing 3 provided with a portion defining a cavity for receiving the male housing; a sensor 7 that senses the mated state of the first and second parts; and a lock 6 that locks the first and second parts in the mated state at a regular mating position. The lock 6 is made of a clip member made of a spring wire-like body and has first latch portions 63A, 66A and a second latch portion 67A. The sensor 7 is made of a sliding sensing member having a sensing arm 73 made of a resilient piece provided with an engaging portion 73a? that latches into the second latch portion 67A.

Abstract: A connector position assurance device includes a base panel member and a latch assembly connected to and extending perpendicularly and forwardly from the base panel member. The latch assembly has a first flexible arm and a second flexible arm disposed in a juxtaposed manner relative to one another on opposing sides of a longitudinal axis. Each one of the first and second flexible arms is operative to move between a normal relaxed state and a flexed state generally in a lateral direction with the first and second flexible arms being resiliently biased to the normal relaxed state. The first flexible arm has a talon portion at a first flexible arm distal end thereof and the second flexible arm has a guiding projection at a second flexible arm distal end thereof. A connector assembly apparatus includes a first connector housing, a second connector housing and the connector position assurance device.

Abstract: An electric connector includes a connector body 2 having contacts, and a connector housing 10. The connector housing 10 has a cavity 12, for housing the connector body 2, and an operation lever 16. The connector body 2 is inserted into the cavity 12, and the electric connector is engaged with another connector by rotating the operation lever 16. The connector housing 10 has a sensing member 13 on one of its sidewalls. The sensing member 13 resiliently changes its shape according to insertion conditions of the connector body 2, either rising from the sidewall or flat on the sidewall. The sensing member 13 detects the insertion conditions of the connector body 2 in the cavity 12. The operation lever 16 hits the sensing member 13 when the sensing member rises from the sidewall, and rotation of the operation lever 16 is blocked. With this configuration, connection between the connector body 2 having the contacts and the connector housing 10 that houses the connector body 2 is properly made.

Abstract: The electrical connector 1 according to one embodiment of the present invention includes a male connector 13 having a male housing 14 with a first latch part 1, a female connector 2 having a female housing with an inserting hole, and a connector position assurance (CPA) 9. The first latch part 1 has first and second latch protrusions P1, P2, and the female connector 2 has an elastic latch arm 8 with a latch pawl at a leading edge part of the female connector. The CPA 9 includes a first finger piece 92 having a first bent protrusion D1, second finger pieces 91, 93 each having a second bent protrusion D2, and a spring-force-accumulated part. The first and second finger pieces of the CPA 9 are attached between the elastic latch arm and one inner wall surface. While the two connectors 2, 13 are fitted, the male connector slides the CPA backward.

Abstract: The electrical connector 1 according to one embodiment of the present invention includes a male connector 13 having a male housing 14 with a first latch part 1, a female connector 2 having a female housing with an inserting hole, and a connector position assurance (CPA) 9. The first latch part 1 has first and second latch protrusions P1, P2, and the female connector 2 has an elastic latch arm 8 with a latch pawl at a leading edge part of the female connector. The CPA 9 includes a first finger piece 92 having a first bent protrusion D1, second finger pieces 9i, 93 each having a second bent protrusion D2, and a spring-force-accumulated part. The first and second finger pieces of the CPA 9 are attached between the elastic latch arm and one inner wall surface. While the two connectors 2, 13 are fitted, the male connector slides the CPA backward.

Abstract: An electrical connector comprises a first connector part that has a male housing with an engaging portion formed on the outer periphery thereof; a second connector part 2 that has a female housing 3 provided with a portion defining a cavity for receiving the male housing; sensing means 7 that senses the mated state of the first and second parts; and locking means 6 that locks the first and second parts in the mated state at a regular mating position. The locking means 6 is made of a clip member made of a spring wire-like body and has first latch portions 63A, 66A and a second latch portion 67A. The sensing means 7 is made of a sliding sensing member having a sensing arm 73 made of a resilient piece provided with an engaging portion 73a? that latches into the second latch portion 67A. The female housing 3 at the outer wall thereof is provided with a portion defining a through-hole that projects the first latch portions 63A, 66A of the clip member 6 into the cavity.

Abstract: An electric connector includes a connector body 2 having contacts, and a connector housing 10. The connector housing 10 has a cavity 12, for housing the connector body 2, and an operation lever 16. The connector body 2 is inserted into the cavity 12, and the electric connector is engaged with another connector by rotating the operation lever 16. The connector housing 10 has a sensing member 13 on one of its sidewalls. The sensing member 13 resiliently changes its shape according to insertion conditions of the connector body 2, either rising from the sidewall or flat on the sidewall. The sensing member 13 detects the insertion conditions of the connector body 2 in the cavity 12. The operation lever 16 hits the sensing member 13 when the sensing member rises from the sidewall, and rotation of the operation lever 16 is blocked. With this configuration, connection between the connector body 2 having the contacts and the connector housing 10 that houses the connector body 2 is properly made.