Receiver for binary coded wireless optical data

Claim 2

A receiver that receives binary coded optical data packets comprises: at least one photodiode that receives the binary coded optical data packets from a transmitting light source to produce received binary encoded data; at least one untuned transformer having at least a primary winding and a secondary winding, wherein the primary winding is operably coupled to the at least one photodiode such that the received binary encoded data is operably coupled from the primary winding to the secondary winding; at least one transimpedance amplifier operably coupled to the secondary winding, wherein the transimpedance amplifier buffers the received binary encoded data to produce buffered binary encoded data; and limiting means, operably coupled to the at least one transimpedance amplifier, for limiting amplitude of the buffered binary encoded data.

Claim 3

The receiver of claim 1 further comprises a second photodiode that receives the binary encoded optical data packets to produce second received binary encoded data.

Claim 4

The receiver of claim 2 further comprises a second untuned transformer having a primary winding and a secondary winding, wherein the secondary winding has reverse phase as that of the primary winding and wherein the primary winding is operably coupled to the second photodiode such that the second received binary encoded data is operably coupled to the secondary winding.

Claim 5

The receiver of claim 3 further comprises a second transimpedance amplifier that buffers the second received binary encode data from the secondary winding of the second untuned transformer to produce buffered second received binary encoded data, wherein the buffered second received binary encoded data is supplied to the limiting means.

Claim 6

In the receiver of claim 1, wherein the limiting means further comprises a band pass filter, operably connected to a first amplifier, and a low pass filter operably connected to said first amplifier, and a second amplifier connected to said low pass filter.

Claim 7

In the receiver of claim 1, the at least one photodiode further comprises a photodiode array to receive the binary encoded optical data packets.

Claim 8

The receiver of claim 1 further comprises a high pass filter operably coupled to the secondary winding.

Claim 9

A receiver that receives binary encoded optical data packets comprising: optical receiving means for receiving the binary encoded optical data packets and for producing received binary encoded data: a first untuned transformer having a primary winding, a secondary winding, and a predetermined frequency response, wherein the primary winding is operably coupled to the optical receiving means such that the received binary encoded data is coupled from the primary winding to the secondary winding; a transimpedance amplifier, operably coupled to the secondary winding, wherein the transimpedance amplifier buffers the received binary encoded data to produce buffered binary encoded data; and limiting means, operably coupled to the transimpedance amplifier, for limiting amplitude of the buffered binary encoded data.

Claim 10

A receiver that receives binary encoded optical data packets comprising: optical receiving means for receiving the binary encoded optical data packets and for producing received binary encoded data: a first untuned transformer having a primary winding, a secondary winding, and a predetermined frequency response, wherein the primary winding is operably coupled to the optical receiving means such that the received binary encoded data is coupled from the primary winding to the secondary winding; a transimpedance amplifier, operably coupled to the secondary winding, wherein the transimpedance amplifier buffers the received binary encoded data to produce buffered binary encoded data; and limiting means, operably coupled to the transimpedance amplifier, for limiting amplitude of the buffered binary encoded data.

Claim 11

In the receiver of claim 8, the optical receiving means further functions as a light collector with diode array, wherein the light collector with diode array is operably coupled to the first untuned transformer, wherein the light collector with diode array receives the binary encoded optical data packets to produce first received binary encoded data.

Claim 12

In the receiver of claim 8, the optical receiving means further functions as a photodiode, wherein the photodiode is operably coupled to the first untuned transformer, wherein the photodiode receives the binary encoded optical data packets to produce first received binary encoded data.

Claim 13

In the receiver of claim 8, the optical receiving means further functions as a first set of photodiodes and a second set of photodiodes, wherein the first set of photodiodes is operably coupled to the first untuned transformer, wherein the first set of photodiodes receives the binary encoded optical data packets to produce first received binary encoded data and wherein the second set of photodiodes receives the binary encoded optical data packets to produce second received binary encoded data.

Claim 14

In tile receiver of claim 8, wherein the limiting means further comprises a low pass filter, operably connected between first and second amplifiers, and a band pass filter operably connected to said first amplifier.

Claim 15

The receiver of claim 11 further comprises a second untuned transformer having a primary winding and a secondary winding, wherein the secondary winding has reverse phase as that of the primary winding and wherein the primary winding is operably coupled to the second set of photodiodes such that the second received binary encoded data is operably coupled to the secondary winding.

Claim 16

The receiver of claim 13 further comprises a second transimpedance amplifier that buffers the second received binary encoded data from the secondary winding of the second untuned transformer to produce buffered second received binary encoded data, wherein the buffered second received binary encoded data is supplied to the limiting means.

Claim 17

An improved personal computer that includes a binary encoded data detector coupled to a receiver that receives binary coded optical data packets, wherein the improvement comprises: at least one photodiode that receives the binary coded optical data packets from a transmitting light source to produce received binary encoded data; at least one untuned transformer having at least a primary winding and a secondary winding, wherein the primary winding is operably coupled to the at least one photodiode such that the received binary encoded data is operably coupled from the primary winding to the secondary winding; at least one transimpedance amplifier, operably coupled to the secondary winding, wherein the transimpedance amplifier buffers the received binary encoded data to produce buffered binary encoded data; and limiting means, operably coupled to the at least one transimpedance amplifier, for limiting amplitude of the buffered binary encoded data.

Claim 18

An improved personal computer that includes a binary encoded data detector coupled to a receiver that receives binary coded optical data packets, wherein the improvement comprises: at least one photodiode that receives the binary coded optical data packets from a transmitting light source to produce received binary encoded data; at least one untuned transformer having at least a primary winding and a secondary winding, wherein the primary winding is operably coupled to the at least one photodiode such that the received binary encoded data is operably coupled from the primary winding to the secondary winding; at least one transimpedance amplifier, operably coupled to the secondary winding, wherein the transimpedance amplifier buffers the received binary encoded data to produce buffered binary encoded data; and limiting means, operably coupled to the at least one transimpedance amplifier, for limiting amplitude of the buffered binary encoded data.