All The Claims

1. An AC-to-DC voltage converter as power supply for lamp includes input power supply 210, input protection circuit 201, EMI filter 202, rectifier 203, filter 204, converter 206, output filter 214, lamp 211, start circuit 208, control circuit 209, biasing circuit 212, sampling circuit 207, output protection circuit 200, feedback and dimming circuit 205 and input monitor circuit 213, its character is converting an AC input voltage to a constant DC voltage at predetermined value set by potentiometer; the lamp has constant brightness that reduces eyes’ fatigue to minimum level, the lamp is dimmable by changing potentiometer, the power supply doesn’t include electromagnetic radiation and protects people’s eyesight and health to maximum level;
Input power supply 210 is connected to input protection circuit 201, 201 is connected to EMI filter 202, 202 is connected to rectifier 203, 203 is connected to filter 204, 204 is connected to input of converter 206, the output of converter 206 is connected to output filter 214, 214 is connected to lamp 211, the input of sampling circuit 207 is connected to the output of converter 206 or lamp 211, the output of sampling circuit 207 is connected to input of feedback and dimming circuit 205, the output of feedback and dimming circuit 205 is connected to input of control circuit 209, input of start circuit 208 is connected to output of rectifier 203 or the output of filter 204, output of start circuit 208 is connected to input of control circuit 209 or output of biasing circuit 212, input of biasing circuit 212 is connected to output of converter 206 or lamp 211, input of output protection circuit 200 is connected to output of converter 206 or lamp 211, output of output protection circuit 200 is connected to input of control circuit 209, input of input monitor circuit 213 is connected to output of rectifier 203 or output of filter 204, output of input monitor circuit 213 is connected to input of control circuit 209, the output of control circuit 209 is connected to input of converter 206;
The position or connection way of circuit block 200, 201, 202, 203, 204, 205, 206, 207, 208, 209, 210, 211, 212, 213, 214 can be changed, some block can be removed, or new block can be added in or attached; some block can be integrated into one circuit, part of some block can be integrated with part of another block into one circuit; every block can use any circuit that has the required function.
2. An AC-to-DC voltage converter as power supply for lamp according to claim 1, wherein input voltage supply comes from line voltage that is usually low frequency AC voltage such as 110 volt, 60 Hz or 220 volt, 50 Hz; over current protection circuit becomes open to cut off the connection between input voltage supply 210 and power supply input when input current is above predetermined value, over voltage protection circuit clamp input voltage under predetermined value to prevent over voltage damage on power supply circuit, they compose input protection circuit 201; EMI filter 202 prevents high frequency component from entering low frequency input power supply 210; rectifier 203 converts AC voltage to varying magnitude DC voltage; filter 204 prevents high frequency component from entering start circuit 208 and control circuit 209; converter 206 converts varying magnitude DC voltage to constant DC voltage; sampling circuit 207 collect voltage signal proportional to output voltage; feedback and dimming circuit 205 regulates output voltage at constant value while changes output voltage and dims lamp by changing potentiometer resistor value to change the ratio between output voltage and interior reference voltage in control circuit 209; control circuit 209 control turn on time or switching frequency of the main switch in converter 206 to regulate the output voltage at a constant value; output filter 214 prevents high frequency component from entering output lamp; start circuit 208 supplies power to control circuit 209 to startup the power supply before stable operation, after the power supply enter stable state, the start circuit 208 is reverse biased and doesn’t work and biasing circuit 212 supply power to control circuit 209, some circuit can use biasing circuit 212 to supply power to control circuit 209 from very beginning to stable state; lamp 211 can use any kind of lamp; output protection circuit 200 can have over voltage protection circuit, over current protection circuit, over temperature protection circuit, when output voltage, output current or board temperature is above predetermined value; control circuit 209 turns off the main switch in voltage converter 206; input monitor circuit 213 monitor the input voltage and send the signal to control circuit 209 to control duty cycle or frequency response to input voltage in order that the output voltage is regulated at constant predetermined value.
3. An AC-to-DC voltage converter as power supply for lamp according to claim 1, wherein one implementation is shown in FIG. 2, 3, 4, input power supply 210 comes from line voltage usually around 110 volt 60 Hz AC voltage; fuse F1 works as input over current protection circuit, transient absorber VR1 works as input over voltage protection circuit, F1 and VR1 constitute input protection circuit 201; inductor L2 common mode filter and capacitor C3 form the EMI filter 202, resistor R27 can discharge capacitor C3; diodes D7, D8, D9, D10 compose bridge rectifier BR1, diodes D15,D16,D17,D18 compose bridge rectifier BR2, BR1 or BR2 or both become rectifier circuit 203, resistor R25 is the limiting current resistor; \u03c0 filter composed of capacitors C1,C2 and inductor L1 works as filter 204; transformer T1, transistor Q1,diode D20 constitute Flyback topology converter that works as converter 206, voltage clamping circuit D2, diode D1, resistor R24,R26, capacitor C15 clamp the spike voltage on the drain of transistor Q1, resistor R30 prevents transistor Q1 from turning on by static electricity; common mode filter L3 and capacitor C20,C30 constitute output filter 214, resistor R20 discharge capacitor C20,C30; auxiliary winding of transformer T1 and diode D6 constitute sampling circuit 207; resistor R6,R12 and potentiometer R15 constitute feedback and dimming circuit 205, capacitor C21 remove noise signal; integrated circuit Iw2202 works as control circuit 209, resistor R29 and diode D19 control delay time of turn on duaration; resistors R10,R11,R7, transistor Q2, capacitor C8, zener diodes D11,D12 constitute start circuit 208; auxiliary winding, diodes D4,D5, transistor Q3, resistor R8, zener diodes D13,D14, capacitors C9,C19 constitute biasing circuit 212; lamp 211 can use any lamp like Halogen, Incandescent or DC fluorescent etc; auxiliary winding, resistors R16,R17,R23 and diode D3 constitute output over voltage protection circuit, capacitors C11,C12,C13,C14 and resistors R18,R19,R21, NTC thermistor R22 and transistor Q4 constitute over temperature protection circuit, resistor R9, filter composed of R28, C18 constitute over current protection circuit, as above, three circuits compose output protection circuit 200; capacitor C16,C17, voltage divider resistors R1, R2, R3, R4, filter resistor R5, capacitor C4 compose input monitor circuit 213; other circuits with similar function can be used for the AC-to-DC voltage converter as power supply for lamp.
4. An AC-to-DC voltage converter as power supply for lamp according to claim 1, wherein the lamp can use any kind lamp, such as Halogen, Incandescent, LED, PAR, miniature sealed beam lamp, Projection lamp, Automotive lamp, stage and studio lamp, DC fluorescent, DC compact, phosphorescent OLED, fluorescent OLED, OLED, Fluorescent, HID, Compact, metal halide lamp etc.
5. An AC-to-DC voltage converter as power supply for lamp according to claim 1, wherein the converter output voltage can change polarity periodically if the output lamp uses fluorescent.
6. An AC-to-DC voltage converter as power supply for lamp according to claim 1, wherein the converter 206 converter DC sinusoidal voltage to predetermined DC constant voltage, the topology can use any structure as the following: Buck, Boost, Buck-boost, Noninverting buck-boost, H-Bridge, Watkins-Johnson, Current-fed bridge, Inverse of Watkins-Johnson, Cuk, SEPIC, Inverse of SEPIC, Buck square, full bridge, half bridge, Forward, Two-transistor Forward, Push-pull, Flyback, Push-pull converter based on Watkins-Johnson, Isolated SEPIC, Isolated Inverse SEPIC, Isolated Cuk, Two-transistor Flyback etc or any other topology that can convert a varying magnitude DC voltage after rectified to predetermined DC constant voltage.
7. An AC-to-DC voltage converter as power supply for lamp according to claim 1, wherein the controller 209 control the suitable topology, convert from rectified sinusoidal voltage to predetermined DC constant voltage, Flyback can use iW2202, iW2210, iW1688, UCC28600, LNK362, LNK363, LNK364, TinySwitch series, TOPSwitch series, PeakSwitch series, VIPer series etc IC controllers; Buck or Buck-Boost topology can use LNK302, LNK304, LNK305, LNK306 etc IC controllers; circuit can be different from FIG. 2 when other controllers or topologies are used, control circuit 209 can use any kind of controller, IC or discrete components.
8. An AC-to-DC voltage converter as power supply for lamp according to claim 1, wherein the control circuit 209 can use controller with PFC or without PFC function; PFC function is power factor correction that makes input voltage and current in phase and power factor is near to 1.
9. An AC-to-DC voltage converter as power supply for lamp according to claim 1, wherein the feedback and dimming circuit 205 change the ratio between feedback voltage and interior reference voltage by changing potentiometer resistance value to change voltage on output lamp, the circuit can be realized by different circuits, any one of R6, R12, R15 can be potentiometer or can be removed; Opto-coupler or auxiliary winding can be used for feedback or feedback signal directly comes from lamp, transistor can be combined with opto-coupler or auxiliary winding for feedback, one implementation with opto-coupler feedback and dimming is shown in FIG. 5, cathode of opto-diode is connected to secondary ground while emitter of opto-transistor is connected to primary ground, point 1 can be connected with Vo, point 2 can be connected with a constant predetermined voltage such as reference voltage, regulator voltage, constant supply voltage etc, point 3 can be connected with feedback pin or Vsense pin etc as feedback, R15 is a potentiometer, R6,R31 are resistors, R6 or R31 can be a potentiometer while others are resistors.
10. An AC-to-DC voltage converter as power supply for lamp according to claim 1, wherein the filter 202, 204, 214 remove high frequency signal and prevents high frequency signal from entering power source or power system and lamp 211, any filter can be used such as LC filter, CLC \u03c0 filter, common mode filter, differential mode filter etc, any one of 202,204,214 can be removed.
11. An AC-to-DC voltage converter as power supply for lamp according to claim 1, wherein the start circuit 208 supply power to control circuit 209 to start and is reverse biased after stable operation then biasing circuit 212 supply power to control circuit 209 or can supply power from very beginning to stable operation, any circuit can be used as start circuit 208 such as linear regulator or valley-filled circuit etc
12. An AC-to-DC voltage converter as power supply for lamp according to claim 1, wherein the circuit board is installed in a metal lamp stand to shield electromagnetic radiation to minimum level and the circuit board can also be installed in other material lamp stand.
13. An AC-to-DC voltage converter as power supply for lamp according to claim 1, wherein the control circuit 209 can be combined with main switch in converter 206 to one integrated circuit as in Tiny Switch series controller, TOPSwitch series controllers, PeakSwitch series controllers etc from power integration Inc, VIPer series controllers etc from ST electronics, IRIS series controllers etc from International Rectifier company etc.
14. An AC-to-DC voltage converter as power supply for lamp according to claim 1, wherein the control circuit 209 can change the frequency or duty cycle of main switch, or can fix the frequency as in VIPER series IC controllers or use pulse train control, smart skip mode control, DSP or other methods etc.
15. An AC-to-DC voltage converter as power supply for lamp according to claim 1, wherein the input monitor circuit 213 can be removed as in TEA 1506 controller from Philips semiconductor, AND8099D etc from ON semiconductor, FSDM311 controller etc from Fairchild semiconductor, IRIS series from International Rectifier company or TinySwitch series, TOPSwitch series, PeakSwitch series controllers etc.
16. An AC-to-DC voltage converter as power supply for lamp according to claim 1, wherein the feedback can use opto-coupler as feedback as the following: A voltage reference is in series with optodiode and potentiometer; the collector of opto transistor is in series with FB pin or reference voltage; or voltage reference with a voltage divider composed of potentiometer and resistor to set output voltage, the voltage reference is in series with opto-diode, the opto transistor is in series with pin for feedback.
17. An AC-to-DC voltage converter as power supply for lamp according to claim 1, wherein the rectifier 203 can include one or two or more rectifiers and can use any circuit as rectifier, full bridge rectifier, half bridge rectifier, 2 diodes, 4 diodes or bridgeless PFC etc.
18. An AC-to-DC voltage converter as power supply for lamp according to claim 1, wherein the start circuit 208 can be removed or can be combined with part of other circuit into one integrated circuit.
19. An AC-to-DC voltage converter as power supply for lamp according to claim 1, wherein the output can also have load as adaptor, charger, TV power supply, LCD, OLED, any OLED etc, it is can also be used for bus AC to DC converter, PFC converter, PFC converter for lighting, computer power supply, monitor power supply, notebook adapter, LCD TV, ACDC adapter, battery charger, power tool charger, electronic ballast, video game power supply, router power supply etc.
20. An AC-to-DC voltage converter as power supply for lamp according to claim 1, wherein the converter can combine with starter to start fluorescent, compact lamp etc, one implementation is using a starter in parallel with lamp, resistor Rs and Capacitor Cs delay voltage change, Ts is the trigger to connect the cathode filament, after lamp start, voltage goes down and Ts disconnect the cathode filament, Rs is connected to lamp anode side, Cs is connected to lamp cathode side that is shown in FIG. 6.

The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.

1. An electronically customizable article comprising:
a fashion article selected from the group consisting of a handbag, a shoe, glasses, a tie, and a bowtie wherein the fashion article comprises an electronic visual display, a processor, a communication interface for communication between the fashion article and a network, and a non-transitory computer readable medium containing instructions that, when executed by the processor, causes the fashion article to connect to a server over the network, receive data from the server, and display one or more images associated with the data on the electronic visual display.
2. The electronically customizable article of claim 1 wherein the electronic visual display is a touch screen display.
3. The electronically customizable article of claim 1 wherein the electronic visual display is configured to rotate a display on the electronic visual display based on the position of the electronically customizable article.
4. The electronically customizable article of claim 1 wherein the electronic visual display at multiple locations on the fashion article.
5. The electronically customizable article of claim 1 wherein the data received from the server includes data associated with an email.
6. The electronically customizable article of claim 1 wherein the data received from the server includes data associated with a text message.
7. The electronically customizable article of claim 1 wherein the data received from the server includes data associated with a news feed.
8. The electronically customizable article of claim 1 wherein the data received from the server includes data associated with a video.
9. The electronically customizable article of claim 1 wherein the data received from the server includes data associated with a video game.
10. The electronically customizable article of claim 1 the server is a social media server and the electronically customizable article is configured to display social media content.
11. The electronically customizable article of claim 1 further comprising a video capture device for recording video wherein the electronically customizable article is configured to playback the captured video on the electronic visual display.
12. The electronically customizable article of claim 1 further configured to receive data from the server wherein the data is associated with an audio, and configured to playback the audio file on an integrated speaker.
13. An electronically customizable article comprising:
a fashion article selected from the group consisting of a handbag, a shoe, glasses, a tie, and a bowtie wherein the fashion article comprises an electronic visual display, a processor, a IO interface for communication between the fashion article and IO device, and a non-transitory computer readable medium containing instructions that, when executed by the processor, causes the fashion article to connect to the IO device, receive data from IO device, and display one or more images associated with the data on the electronic visual display.
14. The electronically customizable article of claim 13 wherein the IO device is a camera.
15. The electronically customizable article of claim 13 wherein the IO device is a mobile device and displays notification of incoming calls, text messages, or email messages.
16. The electronically customizable article of claim 13 wherein the IO device is another electronically customizable article.
17. An electronically customizable article comprising:
a fashion article selected from the group consisting of a handbag, a shoe, glasses, a tie, and a bowtie wherein the fashion article comprises an electronic visual display, a processor, and a non-transitory computer readable medium containing instructions that, when executed by the processor, causes the fashion article to function as a handheld device.
18. The electronically customizable article of claim 17 wherein the handheld device is a tablet-style computer.
19. The electronically customizable article of claim 17 wherein the handheld device is a mobile phone.

1. An electrical connector assembly for electrically connecting an electrical package with an electrical substrate, comprising:
an electrical connector comprising an insulative housing; a stiffener connected with the housing; and a load plate attached to the stiffener for pressing the electrical package into the housing; and
a pick-up cap including a receiving space whose open side is proximal to the housing and a plurality of latches adapted to attach the pick-up cap to the connector.
2. The electrical connector assembly as claimed in claim 1, wherein the pick-up cap includes a board and a smooth plate in parallel with the board.
3. The electrical connector assembly as claimed in claim 2, wherein the plate and the board are connected by a plurality of sidewalls extending from the board.
4. The electrical connector assembly as claimed in claim 3, wherein the receiving space is within the sidewalls and a bottom of the plate.
5. The electrical connector assembly as claimed in claim 1, wherein the housing comprises a plurality of passageways with a plurality of electrical terminals accommodated therein.
6. An electrical connector assembly for electrically connecting a Central Processing Unit (CPU) package with a printed circuit board, comprising:
an electrical connector comprising an insulative housing defining a plurality of cavities, a plurality of contacts received in the cavities, and a load plate for pressing the CPU package onto the contacts; and
a pick-up cap including a plurality of latches for locking the pick-up cap onto the connector and a smooth plate for being picked up by a device;
wherein the pick-up cap includes a receiving space for receiving an extending portion of the CPU package.
7. The electrical connector assembly as claimed in claim 6, wherein the receiving space is not completely close and accessible from at least one direction.
8. The electrical connector assembly as claimed in claim 6, wherein the connector further includes an actuator accompany with the load plate.
9. The electrical connector assembly as claimed in claim 6, wherein the pick-up cap includes a board and sidewalls extending from the board as well.
10. The electrical connector assembly as claimed in claim 9, wherein the latches extend down from a bottom of the board.
11. The electrical connector assembly as claimed in claim 9, wherein the surface and the board are connected by the sidewalls.
12. The electrical connector assembly as claimed in claim 9, wherein the connector further comprises a stiffener engaged with the housing.
13. The electrical connector assembly as claimed in claim 9, wherein the receiving space is surrounded by the sidewalls and a bottom of the plate.
14. A pick-up cap for picking up an electrical connector, comprising:
a board defining a smooth surface for being picked up by a device;
a plurality of latches extending down from the bottom of the board;
a receiving space defined in the board and accessible from one direction.
15. The pick-up cap as claimed in claim 14, wherein the board defines an extending portion in its middle and the smooth surface is the upper surface of the extending portion.
16. An electrical connector assembly comprising:
an electrical connector comprising an insulative housing; an electrical package seated upon the housing and defining an upwardly raised top portion; and
a pick-up cap located above the housing to cover said electrical package, and including a raised receiving space so as to receive the top portion of the electrical package on an underside thereof and provide a flat upper surface for vacuum suction.
17. The assembly as claimed in claim 16, a load plate is located between the housing and the cap to press downwardly the electrical package toward the housing.
18. The assembly as claimed in claim 17, wherein an opening is defined in the load plate in alignment with the receiving space so that the top portion of the electrical package extends therethrough to enter the receiving space.

The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.

1. A trim part for a body part, the trim part comprising:
an angled region including diverging limbs that enclose a first angle;
a cut-out disposed in the angled region; and
a closure part at least partially closing the cut-out, the closure part including diverging limbs that enclose a second angle, at least one of the diverging limbs of the closure part lying in congruence with a respective limb of the angled region so as to form a flush visible side, the first angle of the angled region being greater than the second angle of the closure part, and the second limb of the angled region not lying in congruence with the second limb of the closure part so as to provide a clearance with a third angle.
2. The trim part as recited in claim 1, wherein the trim part is a door panel.
3. The trim part as recited in claim 1, wherein the closure part is an exit light.
4. The trim part as recited in claim 2, wherein a window lifter rail is disposed between the door panel and the body part, the window lifter rail having an adjusting element that is accessible through the clearance.
5. The trim part as recited in claim 1, wherein a flange is put down vertically with respect to a horizontally extending limb of the angled region.
6. The trim part as recited in claim 3, where, in an inserted state, the exit light has a lowest point that lies on or above a longitudinal axis of the adjusting element.