USRE44635EExpiredUtilityPatentIndex 50
Orthogonal complex spreading method for multichannel and apparatus thereof
Est. expiryDec 2, 2017(expired)· nominal 20-yr term from priority
H04J 13/0048H04J 13/102H04J 2013/0037H04B 1/7097H04B 1/707
50
PatentIndex Score
0
Cited by
5
References
125
Claims
Abstract
An orthogonal complex spreading method for a multichannel and an apparatus thereof are disclosed. The method includes the steps of complex-summing α n1 W M,n1 X n1 which is obtained by multiplying an orthogonal Hadamard sequence W M,n1 by a first data X n1 of a n-th block and α n2 W M,n2 X n2 which is obtained by multiplying an orthogonal Hadamard sequence W 1,n2 by a second data X n2 of a n-th block; complex-multiplying α n1 W M,n1 X n1 +jα n2 W M,n2 X n2 which is summed in the complex type and W M,n3 +jPW M,n4 of the complex type using a complex multiplier and outputting as an in-phase information and quadrature phase information; and summing only in-phase information outputted from a plurality of blocks and only quadrature phase information outputted therefrom and spreading the same using a spreading code.
Claims
exact text as granted — not AI-modifiedWhat is claimed is:
1. An orthogonal complex spreading method for multiple channels, comprising the steps of:
complex-summing W M,n1 X n1 , which is obtained by multiplying an orthogonal code sequence W M,n1 by first data group X n1 of a n-th block, and W M,n2 X n2 , which is obtained by multiplying an orthogonal code sequence W M,n2 by second data group X n2 of a n-th block, M and n being positive integers; complex-multiplying the complex summed form of W M,n1 X n1 +jW M,n2 X n2 , by a complex form of W M,n3 +jW M,n4 and outputting (W M,n1 X n1 +jW M,n2 X n2 )×(W M,n3 +jW M,n4 ) as an output signal; and summing in-phase and quadrature phase parts of the output signal outputted from a plurality of blocks as
(
∑
n
=
1
K
(
(
W
M
,
n
1
X
n
1
+
(
j
W
)
M
,
n
2
X
n
2
)
×
(
W
M
,
n
3
+
(
j
W
)
M
,
,
n
4
)
)
)
,
K is a predetermined integer greater than or equal to 1 to generate I channel and Q channel signal.
2. The method of claim 1 wherein a spreading code spreads the summed in-phase and quadrature-phase signals outputted from the summing step.
3. The method of claim 1 wherein said orthogonal code sequence includes a Hadamard code sequence.
4. The method of claim 1 wherein said orthogonal code sequence includes a Walsh code.
5. The method of claim 2 wherein said spreading code is one spreading code.
6. The method of claim 5 wherein said spreading code sequence includes a PN code.
7. The method of claim 5 wherein said spreading code includes a first spreading code for the in-phase signal and a second spreading code for the quadrature-phase signal.
8. The method of claim 7 wherein the first and second spreading codes are PN codes.
9. The method of claim 3 wherein W M,11 =W 0 , W M,12 =W 2 , and W M,13 =W 0 , W M,14 =W 1 , when M=4.
10. The method of claim 9 wherein M=8 and W M,12 =W 4 .
11. The method of claim 3 wherein W M,n1 =W 0 , W M,n2 =W 2p , where p represents a predetermined number in a range from 0 to (M/2)−1, and W M,n3 =W 2n-2 , W M,n4 =W 2n-1 .
12. The method of claim 3 wherein W M,21 =W 0 , W M,22 =W 4 , W M,23 =W 2 , W M,24 =W 3 when M=8 in case of two channels.
13. The method of claim 12 wherein W M,12 =W 6 , and W M,22 =W 6 .
14. An orthogonal complex spreading apparatus, comprising:
a plurality of complex multiplication blocks, each for complex-multiplexing a complex signal W M,n1 X n1 +jW M,n2 X n2 by W M,n3 +jW M,n4 wherein W M,n1 X n1 is obtained by multiplying an orthogonal code sequence W M,n1 by first data group X n1 of n-th block and W M,n2 X n2 is obtained by multiplying orthogonal sequence W M,n2 by second data group X n2 of the n-th block, wherein M and n are positive integers and W M,n1 , W M,n2 , W M,n3 and W M,n4 are predetermined orthogonal sequences; and a summing unit for summing in-phase and quadrature phase parts of an output signal from each block of the plurality of the complex multiplication blocks as
(
∑
n
=
1
K
(
(
α
n
1
W
M
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n
1
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n
1
+
j
α
n
2
W
M
,
n
2
X
n
2
)
×
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n
3
+
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j
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)
M
,
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n
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)
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)
,
K is a predetermined integer greater than or equal to 1.
15. The apparatus of claim 14 further comprising a spreading unit for multiplying the summed in-phase and quadrature phase signals inputted from the summing unit by spreading code.
16. The apparatus of claim 15 wherein said spreading unit multiplies the in-phase and quadrature phase part by different spreading codes.
17. The apparatus of claim 14 wherein each said complex multiplication block includes:
a first multiplier for multiplying the first data group X n1 by the orthogonal code sequence W M,n1 ;
a second multiplier for multiplying the second data group X n2 by the orthogonal code sequence W M,n2 ;
third and fourth multipliers for multiplying the output signal W M,n1 X n1 from the first multiplier and the output signal W M,n2 X n2 from the second multiplier by orthogonal code sequence W M,n3 ;
fifth and sixth multipliers for multiplying the output signal W M,n1 X n1 from the first multiplier and the output signal W M,n2 X n2 from the second multiplier by orthogonal code sequence W M,n4 ;
a first adder for subtracting output signal from the sixth multiplier from output signal (ac) from the third multiplier and outputting an in-phase information; and
a second adder for summing output signal from the fourth multiplier and output signal from the fifth multiplier and outputting quadrature phase information.
18. The apparatus of claim 17 wherein said orthogonal code sequence includes a Hadamard code sequence.
19. The apparatus of claim 17 wherein said orthogonal code sequence includes a Walsh code.
20. A permuted orthogonal complex spreading method for multiple channels allocating at least two input channels to first and second groups, comprising the steps of:
multiplying a predetermined orthogonal code sequence W M,n1 by first data group X n1 ; multiplying orthogonal code sequence W M,n2 by second data group X n2 ; summing output signals W M,n1 X n1 and W M,n2 X n2 in the complex form of
∑
n
=
1
K
(
W
M
,
n
1
X
n
1
+
(
j
W
)
M
,
n
2
X
n
2
)
;
and
complex-multiplying the received output signal
∑
n
=
1
K
(
W
M
,
n
1
X
n
1
+
(
j
W
)
M
,
n
2
X
n
2
)
by
(
W
M
,
I
+
(
j
PW
)
M
,
Q
)
wherein P is a predetermined sequence, and W M,I and W M,Q are orthogonal code sequences.
21. The method of claim 20 wherein the spreading code is a PN code.
22. The method of claim 20 wherein P represents said predetermined sequence or predetermined spreading code or predetermined integer configured so that two consecutive sequences have identical values.
23. The method of claim 20 wherein said orthogonal code sequence includes a Hadamard code sequence.
24. The method of claim 20 wherein said orthogonal code sequence includes a Walsh code.
25. The method of claim 23 wherein W M,I =W 0 , W M,Q =W 2q+1 (where q represents a predetermined number in a range from 0 to (M/2)−1).
26. The method of claim 23 further comprising the steps of:
multiplying the first data group X n1 by gain α n1 ; and
multiplying the second data group X n2 by gain α n2 .
27. The method of claim 23 wherein W M,11 =W 0 , W M,12 =W 2 , and W M,I =W 0 , W M,Q =W 1 , where M=4.
28. The method of claim 27 wherein M=8 and W M,12 =W 4 .
29. The method of claim 23 wherein W M,n1 =W 0 , W M,n2 =W 2q+1 , wherein q represents a predetermined number in a range from 0 to (M/2)−1 and W M,I =W 0 , W M,Q =W 1 .
30. The method of claim 20 wherein each group has at least two channels and the receiving step includes the steps of:
summing output signals W M,n1 X n1 from a first sequence multiplier; and
summing output signals W M,n2 X n2 from a second sequence multiplier.
31. A permuted orthogonal complex spreading apparatus for multiple channels, allocating at least two input channels to first and second groups, comprising:
a first multiplier block having at least one channel contained in a first group of channels, each for outputting W M,n1 X n1 which is obtained by multiplying first data group X n1 by orthogonal code sequence W M,n1 , M and n are positive integers; a second multiplier block having a number of channels having at least one channel contained in a second group of channels, each for outputting W M,n2 X n2 which is obtained by multiplying a first data group X n2 by orthogonal code sequence W M,n2 ; a complex multiplier for receiving the output signals from the first and the second multiplier blocks in a complex form of
∑
n
=
1
K
(
W
M
,
n
1
X
n
1
+
(
j
W
)
M
,
n
2
X
n
2
)
and complex-multiplying received output signal by W M,I +jPW M,Q , wherein W M,I and W M,Q are predetermined orthogonal code sequence permuted and P is a predetermined sequence.
32. The apparatus of claim 31 wherein said orthogonal code sequence includes a Hadamard code sequence.
33. The apparatus of claim 31 wherein said orthogonal code sequence includes a Walsh code.
34. The apparatus of claim 32 wherein W M,11 =W 0 , W M,12 =W 4 , W M,21 =W 2 , and W M,I =W 0 , W M,Q =W 1 , when M=8 in case of three input channels.
35. The apparatus of claim 32 wherein W M,11 =W 0 , W M,12 =W 2 , and W M,I =W 0 , W M,Q =W 1 in case of three input channels.
36. The apparatus of claim 32 wherein W M,11 =W 0 , W M,12 =W 4 , W M,23 =W 2 , W M,31 =W 6 , and W M,I =W 0 , W M,Q =W 1 in case of four input channels.
37. The apparatus of claim 32 wherein W M,11 =W 0 , W M,12 =W 4 , W M,31 =W 2 , W M,I =W 0 , W M,Q =W 1 and W M,21 =W 6 in case of four input channels.
38. The apparatus of claim 32 wherein W M,11 =W 0 , W M,12 =W 4 , W M,21 =W 2 , W M,31 =W 0 , W M,22 =W 1 , and W M,I W 0 , W M,Q =W 1 in case of five input channels.
39. The apparatus of claim 32 wherein W M,n1 =W 0 , W M,12 =W 4 , W M,21 =W 2 , W M,31 =W 6 , W M,22 =W 3 , and W M,I =W 0 , W M,Q =W 1 in case of five channels.
40. The apparatus of claim 31 wherein W M,11 =W 0 , W M,12 =W 4 , W M,31 W 2 , W M,22 =W 6 , and W M,I =W 0 , W M,Q =W 1 and W M,21 =W 8 in case of five input channels.
41. The apparatus of claim 36 wherein W 0 X 11 +jW 4 X 12 , W 2 X 21 and W 6 X 31 are replaced by α 11 W 0 X 11 +jα 12 W 4 X 12 , α 21 W 2 X 21 and α 31 W 6 X 31 , and a gain α n1 and a gain α n2 are the identical gain in order to remove the phase dependency by an interference occurring in a multipath of a self signal and an interference occurring by other users.
42. The apparatus of claim 31 wherein W M,n1 =W 0 , W M,n2 =W 2 , and W M,I =W 0 , W M,Q =W 1 .
43. The apparatus of claim 31 wherein the first multiplier block comprises at least a third multiplier for multiplying the first data group X n1 by gain α n1 , and the second multiplier block comprises at least a fourth multiplier the second data group X n2 by gain α n2 .
44. The apparatus of claim 31 wherein W M,11 =W 0 , W M,12 =W 4/1 , and W M,I =W 0 , W M,Q =W 1/4 , when M=8 in case of two input channels.
45. The apparatus of claim 32 wherein W M,11 =W 0 , W M,12 =W 4/1 , W M,21 =W 2 , and W M,I =W 0 , W M,Q =W 1/4 , when M=8 in case of three input channels.
46. The method of claim 32 wherein W M,11 =W 0 , W M,12 =W 2/1 , and W M,I =W 0 , W M,Q =W 1/2 , when M=8 in case of two input channels.
47. The apparatus of claim 32 wherein W M,11 =W 0 , W M,12 =W 2/1 , W M,21 =W 4 , and W M,I =W 0 , W M,Q =W 1/2 , when M=8 in case of three input channels.
48. The apparatus of claim 31 wherein each group has at least the two input channels, further comprising:
a first adder for outputting
∑
n
=
1
K
(
W
M
,
n
1
X
n
1
)
by summing output signals from the first multiplier block; and
a second adder for outputting
∑
n
=
1
K
(
W
M
,
n
2
X
n
2
)
by summing output signals from the second multiplier block.
49. The apparatus of claim 31 further comprising:
a spreading unit for multiplying the signal
∑
n
=
1
K
(
W
M
,
n
1
X
n
1
+
jW
M
,
n
2
X
n
2
)
received by the complex multiplier by a spreading code.
50. The apparatus of claim 49 wherein the spreading unit respectively multiplies the in-phase and quadrature-phase parts by different spreading codes.
51. The apparatus of claim 31 wherein W M,n1 , W M,n2 , W M,I , and W M,Q are orthogonal Hadamard sequences.
52. The apparatus of claim 31 wherein the complex multiplier includes:
fifth and sixth multipliers for multiplying said output signal from the first multiplier block and said output signal from the second sequence multiplier by orthogonal sequence W M,I ;
seventh and eighth multipliers for multiplying said output signal from the first multiplier block and output signal α n2 W M,n2 X n2 from the second multiplier block by orthogonal sequence W M,Q ;
a third adder for subtracting output signal from the eighth multiplier from output signal from the fifth multiplier to output an in-phase information; and
a second adder for summing output signal from the sixth multiplier and output signal from the seventh multiplier to output quadrature-phase information.
53. A permuted orthogonal complex spreading apparatus for multiple channels, allocating at least two input channels into first and second groups, comprising:
first and second multiplier blocks for respectively multiplying first and second data group X n1 , and X n2 with a set of predetermined orthogonal sequences W M,n1 , and W M,n2 to output W M,n1 X n1 and W M,n2 X n2 ; a complex multiplier for receiving the output signals W M,n1 X n1 and W M,n2 X n2 from the first and the second multiplier blocks in the complex form of
∑
n
=
1
K
(
W
M
,
n
1
X
n
1
+
jW
M
,
n
2
X
n
2
)
and multiplying a received signal
∑
n
=
1
K
(
W
M
,
n
1
X
n
1
+
jW
M
,
n
2
X
n
2
)
by a predetermined sequence (W M,I +jPW M,Q )×SC, wherein W M,I , W M,Q are predetermined orthogonal sequences, P is a predetermined sequence and SC is a spreading sequence.
54. The apparatus of claim 53 wherein each group has at least two input channels, further comprising:
a first adder for outputting
∑
n
=
1
K
(
W
M
,
n
1
X
n
1
)
by summing output signals from the first sequence multiplier; and
a second adder for outputting
∑
n
=
1
K
(
W
M
,
n
2
X
n
2
)
by summing output signals from the second sequence multiplier.
55. The apparatus of claim 53 wherein the first sequence multiplier comprises at least one first gain multiplier for multiplying the data X n1 , of each channel of the first group by gain α n1 , and the second sequence multiplier comprises at least one second gain multiplier for multiplying the data X n2 of each channel of the second group by gain α n2 .
56. The apparatus of claim 53 wherein W M,n1 =W 0 , W M,n2 W 2p , and W M,I =W 0 , W M,Q =W 1 , where p represents a predetermined integer in a range from 0 to (M/2)−1.
57. The apparatus of claim 53 wherein W M,n1 , W M,n2 , W M,I , and W M,Q are orthogonal Hadamard sequences.
58. A mobile communications device, comprising:
a first signal generator configured to generate a first signal, a, based on at least a first input, a first code, and a first gain; a second signal generator configured to generate a second signal, b, based on at least a second input, a second code, and a second gain; a first sequence receiving unit configured to receive a first sequence of elements, the elements in the first sequence of elements nonrandomly alternating between a first value and a second value, the first value being different from the second value; a second sequence receiving unit configured to receive a second sequence of elements, e, wherein some of the elements in the second sequence of elements have the first value and the other elements in the second sequence of elements have the second value; a first output unit configured to nonrandomly output e·a−e·b·d, wherein d is a third signal based on at least the first sequence of elements; and a second output unit configured to nonrandomly output e·b+e·a·d.
59. The mobile communication device of claim 58, wherein the first sequence of elements is W 1 .
60. The mobile communication device of claim 59, wherein the first signal is generated based on at least a fourth signal generated by multiplying the first input, the first code, and the first gain, and the second signal is generated based on at least a fifth signal generated by multiplying the second input, the second code, and the second gain.
61. The mobile communication device of claim 59, wherein the first code consists of elements, one or more of the elements of the first code having the first value and the remaining elements of the first code having the second value, wherein for the (2M−1)th element of the first code, the value of the (2M−1)th element of the first code is the same as the value of the (2M)th element of the first code, where M is a series of sequential positive integers beginning at 1.
62. The mobile communication device of claim 61, wherein the second code consists of elements, one or more of the elements of the second code having the first value and the remaining elements of the second code having the second value, wherein for the (2K−1)th element of the second code, the value of the (2K−1)th element of the second code is the same as the value of the (2K)th element of the second code, where K is a series of sequential positive integers beginning at 1.
63. The mobile communication device of claim 59, wherein the first signal consists of a sequence of pairs of elements, wherein each pair of elements consists of two elements both having a same value.
64. The mobile communication device of claim 63, wherein the second signal consists of a sequence of pairs of elements, wherein each pair of elements consists of two elements both having a same value.
65. The mobile communication device of claim 58, wherein the second sequence of elements is a first PN code.
66. The mobile communication device of claim 65, wherein the first sequence of elements is W 1 .
67. The mobile communication device of claim 65, wherein the third signal is further based on a third sequence of elements.
68. The mobile communication device of claim 58, wherein the third signal is further based on a third sequence of elements.
69. The mobile communication device of claim 68 or claim 67, wherein the third sequence of elements is generated based on a second PN code.
70. The mobile communication device of claim 68 or claim 67, wherein the third sequence of elements is generated based on a spreading sequence.
71. The mobile communication device of claim 68 or claim 67, wherein one or more of the elements in the third sequence of elements have the first value and the remaining elements in the third sequence of elements have the second value, wherein for the (2N−1)th element in the third sequence of elements, the value of the (2N−1)th element is the same as the value of the (2N)th element in the third sequence of elements, where N is a series of sequential positive integers beginning at 1.
72. The mobile communication device of claim 68 or claim 67, wherein the third signal is a multiplication of the first sequence of elements and the third sequence of elements.
73. The mobile communication device of claim 68 or claim 67, wherein the third sequence of elements consists of a sequence of groups, wherein each of the groups consists of either two elements both having the first value or two elements both having the second value.
74. The mobile communication device of claim 58, wherein the first signal is generated based on at least a fourth signal generated by multiplying the first input, the first code, and the first gain, and the second signal is generated based on at least a fifth signal generated by multiplying the second input, the second code, and the second gain.
75. The mobile communication device of claim 68 or claim 67, wherein the third signal is a multiplication of the first sequence of elements and the third sequence of elements and wherein the third sequence consists of a sequence of groups, wherein each of the groups consists of either two elements both having the first value or two elements both having the second value.
76. The mobile communication device of claim 75, wherein the first signal is generated based on at least a fourth signal generated by multiplying the first input, the first code, and the first gain, and the second signal is generated based on at least a fifth signal generated by multiplying the second input, the second code, and the second gain.
77. The mobile communication device of claim 76, wherein the first code consists of elements, one or more of the elements of the first code having the first value and the remaining elements of the first code having the second value, wherein for the (2M−1)th element of the first code, the value of the (2M−1)th element of the first code is the same as the value of the (2M)th element of the first code, where M is a series of sequential positive integers beginning at 1.
78. The mobile communication device of claim 77, wherein the second code consists of elements, one or more of the elements of the second code having the first value and the remaining elements of the second code having the second value, wherein for the (2K−1)th element of the second code, the value of the (2K−1)th element of the second code is the same as the value of the (2K)th element of the second code, where K is a series of sequential positive integers beginning at 1.
79. The mobile communication device of claim 76, wherein the first signal consists of a sequence of pairs of elements, wherein each pair of elements consists of two elements both having a same value.
80. The mobile communication device of claim 79, wherein the second signal consists of a sequence of pairs of elements, wherein each pair of elements consists of two elements both having a same value.
81. The mobile communication device of claim 75, wherein the first code consists of elements, one or more of the elements of the first code having the first value and the remaining elements of the first code having the second value, wherein for the (2M−1)th element of the first code, the value of the (2M−1)th element of the first code is the same as the value of the (2M)th element of the first code, where M is a series of sequential positive integers beginning at 1.
82. The mobile communication device of claim 81, wherein the second code consists of elements, one or more of the elements of the second code having the first value and the remaining elements of the second code having the second value, wherein for the (2K−1)th element of the second code, the value of the (2K−1)th element of the second code is the same as the value of the (2K)th element of the second code, where K is a series of sequential positive integers beginning at 1.
83. The mobile communication device of claim 75, wherein the first signal consists of a sequence of pairs of elements, wherein each pair of elements consists of two elements both having a same value.
84. The mobile communication device of claim 83, wherein the second signal consists of a sequence of pairs of elements, wherein each pair of elements consists of two elements both having a same value.
85. The mobile communication device of claim 58 or claim 65, wherein the first code and the second code include Walsh codes.
86. The mobile communication device of claim 58 or claim 65, wherein the first code and the second code are even-numbered Walsh codes.
87. The mobile communication device of claim 86, wherein the first signal is generated based on at least a fourth signal generated by multiplying the first input, the first code, and the first gain, and the second signal is generated based on at least a fifth signal generated by multiplying the second input, the second code, and the second gain.
88. The mobile communication device of claim 68, wherein the first signal is generated based on at least a fourth signal generated by multiplying the first input, the first code, and the first gain, and the second signal is generated based on at least a fifth signal generated by multiplying the second input, the second code, and the second gain.
89. The mobile communication device of claim 58, wherein the first code consists of elements, one or more of the elements of the first code having the first value and the remaining elements of the first code having the second value, wherein for each (2M−1)th element of the first code, the value of the (2M−1)th element of the first code is the same as the value of a (2M)th element of the first code, where M is a series of sequential positive integers beginning at 1.
90. The mobile communication device of claim 89, wherein the second code consists of elements, one or more of the elements of the second code having the first value and the remaining elements of the second code having the second value, wherein for the (2K−1)th element of the second code, the value of the (2K−1)th element of the second code is the same as the value of the (2K)th element of the second code, where K is a series of sequential positive integers beginning at 1.
91. The mobile communication device of claim 58, wherein the first signal consists of a sequence of pairs of elements, wherein each pair of elements consists of two elements both having a same value.
92. The mobile communication device of claim 91, wherein the second signal consists of a sequence of pairs of elements, wherein each pair of elements consists of two elements both having a same value.
93. The mobile communication device of claim 58, wherein the second sequence of elements is a spreading sequence.
94. A mobile communications device, comprising:
a first output generator configured to generate a first output, a, based on at least one or more first inputs, one or more first codes, and one or more first gains; a second output generator configured to generate a second output, b, based on at least one or more second inputs, one or more second codes, and one or more second gains; a first sequence receiving unit configured to receive a first sequence of elements, e, wherein some of the elements in the first sequence have a first value and the other elements in the first sequence have a second value, the first value being different from the second value; a second sequence receiving unit configured to receive a second sequence of elements, W; a third sequence receiving unit configured to receive a third sequence of elements, P; and an output unit configured to nonrandomly output (a+jb)·(1+jP·W)·e.
95. The mobile communication device of claim 94, wherein the second sequence of elements is W 1 .
96. The mobile communication device of claim 95, wherein:
the first output is generated based on summing one or more first multiplications, each first multiplication generated by multiplying one of the one or more first inputs, one of the one or more first codes, and one of the one or more first gains; and the second output is generated based on summing one or more second multiplications, each second multiplication generated by multiplying one of the one or more second inputs, one of the one or more second codes, and one of the one or more second gains.
97. The mobile communication device of claim 96, wherein:
each of the one or more first codes consists of elements; for each of the one or more first codes, one or more of the elements in the respective first code have the first value and the remaining elements have the second value; and for the (2M−1)th element of each of the one or more first codes, the value of the (2M−1)th element is the same as the value of the (2M)th element, where M is a series of sequential positive integers beginning at 1.
98. The mobile communication device of claim 97, wherein:
each of the one or more second codes consists of elements; for each of the one or more second codes, one or more of the elements in the respective second code have the first value and the remaining elements have the second value; and for the (2K−1)th element of each of the one or more second codes, the value of the (2K−1)th element is the same as the value of the (2K)th element, where K is a series of sequential positive integers beginning at 1.
99. The mobile communication device of claim 96, wherein the first output consists of a sequence of pairs of elements, wherein each pair of elements consists of two elements both having a same value.
100. The mobile communication device of claim 99, wherein the second output consists of a sequence of pairs of elements, wherein each pair of elements consists of two elements both having a same value.
101. The mobile communication device of claim 95, wherein:
each of the one or more first codes consists of elements; for each of the one or more first codes, one or more of the elements in the respective first code have the first value and the remaining elements have the second value; and for the (2M−1)th element of each of the one or more first codes, the value of the (2M−1)th element is the same as the value of the (2M)th element, where M is a series of sequential positive integers beginning at 1.
102. The mobile communication device of claim 101, wherein:
each of the one or more second codes consists of elements; for each of the one or more second codes, one or more of the elements in the respective second code have the first value and the remaining elements have the second value; and for the (2K−1)th element of each of the one or more second codes, the value of the (2K−1)th element is the same as the value of the (2K)th element, where K is a series of sequential positive integers beginning at 1.
103. The mobile communication device of claim 95, wherein the first output consists of a sequence of pairs of elements, wherein each pair of elements consists of two elements both having a same value.
104. The mobile communication device of claim 103, wherein the second output consists of a sequence of pairs of elements, wherein each pair of elements consists of two elements both having a same value.
105. The mobile communication device of claim 94, wherein the one or more first codes and the one or more second codes are even-numbered Walsh codes.
106. The mobile communication device of claim 105, wherein:
the first output is generated based on summing one or more first multiplications, each first multiplication generated by multiplying one of the one or more first inputs, one of the one or more first codes, and one of the one or more first gains; and the second output is generated based on summing one or more second multiplications, each second multiplication generated by multiplying one of the one or more second inputs, one of the one or more second codes, and one of the one or more second gains.
107. The mobile communication device of claim 94, wherein the (2N−1)th element in the second sequence of elements has the first value and the (2N)th element in the second sequence of elements has the second value, wherein N is a series of sequential positive integers beginning at 1.
108. The mobile communication device of claim 107, wherein:
the first output is generated based on summing one or more first multiplications, each first multiplication generated by multiplying one of the one or more first inputs, one of the one or more first codes, and one of the one or more first gains; and the second output is generated based on summing one or more second multiplications, each second multiplication generated by multiplying one of the one or more second inputs, one of the one or more second codes, and one of the one or more second gains.
109. The mobile communication device of claim 107, wherein:
each of the one or more first codes consists of elements; for each of the one or more first codes, one or more of the elements in the respective first code have the first value and the remaining elements have the second value; and for the (2M−1)th element of each of the one or more first codes, the value of the (2M−1)th element is the same as the value of the (2M)th element, where M is a series of sequential positive integers beginning at 1.
110. The mobile communication device of claim 109, wherein:
each of the one or more second codes consists of elements; for each of the one or more second codes, one or more of the elements in the respective second code have the first value and the remaining elements have the second value; and for the (2K−1)th element of each of the one or more second codes, the value of the (2K−1)th element is the same as the value of the (2K)th element, where K is a series of sequential positive integers beginning at 1.
111. The mobile communication device of claim 107, wherein the first output consists of a sequence of pairs of elements, wherein each pair of elements consists of two elements both having a same value.
112. The mobile communication device of claim 111, wherein the second output consists of a sequence of pairs of elements, wherein each pair of elements consists of two elements both having a same value.
113. The mobile communication device of claim 94, claim 95, claim 105, or claim 107, wherein the third sequence of elements consists of a sequence of groups, wherein each of the groups consists of either two elements both having the first value or two elements both having the second value.
114. The mobile communication device of claims 94, claim 95, claim 105, or claim 107, wherein P is generated based on a PN code.
115. The mobile communication device of claim 94, claim 95, claim 105, or claim 107, wherein e is a spreading sequence.
116. The mobile communication device of claim 94, claim 95, claim 105, or claim 107, wherein e is a PN code.
117. The mobile communication device of claim 94, wherein:
the first output is generated based on summing one or more first multiplications, each first multiplication generated by multiplying one of the one or more first inputs, one of the one or more first codes, and one of the one or more first gains; and the second output is generated based on summing one or more second multiplications, each second multiplication generated by multiplying one of the one or more second inputs, one of the one or more second codes, and one of the one or more second gains.
118. The mobile communication device of claim 117, wherein:
each of the one or more first codes consists of elements; for each of the one or more first codes, one or more of the elements in the respective first code have the first value and the remaining elements have the second value; and for the (2M−1)th element of each of the one or more first codes, the value of the (2M−1)th element is the same as the value of the (2M)th element, where M is a series of sequential positive integers beginning at 1.
119. The mobile communication device of claim 118, wherein:
each of the one or more second codes consists of elements; for each of the one or more second codes, one or more of the elements in the respective second code have the first value and the remaining elements have the second value; and for the (2K−1)th element of each of the one or more second codes, the value of the (2K−1)th element is the same as the value of the (2K)th element, where K is a series of sequential positive integers beginning at 1.
120. The mobile communication device of claim 117, wherein the first output consists of a sequence of pairs of elements, wherein each pair of elements consists of two elements both having a same value.
121. The mobile communication device of claim 120, wherein the second output consists of a sequence of pairs of elements, wherein each pair of elements consists of two elements both having a same value.
122. The mobile communication device of claim 94, wherein:
each of the one or more first codes consists of elements; for each of the one or more first codes, one or more of the elements in the respective first code have the first value and the remaining elements have the second value; and for the (2M−1)th element of each of the one or more first codes, the value of the (2M−1)th element is the same as the value of the (2M)th element, where M is a series of sequential positive integers beginning at 1.
123. The mobile communication device of claim 122, wherein:
each of the one or more second codes consists of elements; for each of the one or more second codes, one or more of the elements in the respective second code have the first value and the remaining elements have the second value; and for the (2K−1)th element of each of the one or more second codes, the value of the (2K−1)th element is the same as the value of the (2K)th element, where K is a series of sequential positive integers beginning at 1.
124. The mobile communication device of claim 94, wherein the first output consists of a sequence of pairs of elements, wherein each pair of elements consists of two elements both having a same value.
125. The mobile communication device of claim 124, wherein the second output consists of a sequence of pairs of elements, wherein each pair of elements consists of two elements both having a same value.Cited by (0)
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