Type33: ENHANCERFLANGER (serial)

———————+————————————————————————————————+———————————————————————

prm1

Enhancer Sens

0 -

127

prm2

Enhancer Mix Level

0 -

127

prm3

Flanger Pre Delay Time

0 -

125

prm4

Flanger Rate

0 -

125

prm5

Flanger Depth

0

-

127

prm6

Flanger Feedback Level

0

-

98

prm7

Flanger Balance

0

-

100

prm8

Output Level

0

-

127

Type34: ENHANCERDELAY (serial)

———————+————————————————————————————————+———————————————————————

prm1

Enhancer Sens

0 -

127

prm2

Enhancer Mix Level

0 -

127

prm3

Delay Time

0 -

126

prm4

Delay Feedback Level

0 -

98

prm5

Delay HF Damp

0

-

17

prm6

(not used)

 

 

prm7

Delay Balance

0

-

100

prm8

Output Level

0

-

127

Type35: CHORUSDELAY (serial)

———————+————————————————————————————————+———————————————————————

prm1

Chorus Pre Delay Time

0 -

125

prm2

Chorus Rate

0 -

125

prm3

Chorus Depth

0 -

127

prm4

(not used)

 

 

prm5

Chorus Balance

0 -

100

prm6

Delay Time

0 -

126

prm7

Delay Feedback Level

0 -

98

prm8

Delay HF Damp

0

-

17

prm9

Delay Balance

0

-

100

prm10

Output Level

0

-

127

Type36: FLANGERDELAY (serial)

———————+————————————————————————————————+———————————————————————

prm1

Flanger Pre Delay Time

0 -

125

prm2

Flanger Rate

0 -

125

prm3

Flanger Depth

0 -

127

prm4

Flanger Feedback Level

0 -

98

prm5

Flanger Balance

0 -

100

prm6

Delay Time

0 -

126

prm7

Delay Feedback Level

0

-

98

prm8

Delay HF Damp

0

-

17

prm9

Delay Balance

0

-

100

prm10

Output Level

0

-

127

Type37: CHORUSFLANGER (serial)

———————+————————————————————————————————+———————————————————————

prm1

Chorus Pre Delay Time

0 -

125

prm2

Chorus Rate

0 -

125

prm3

Chorus Depth

0 -

127

prm4

Chorus Balance

0 -

100

prm5

Flanger Pre Delay Time

0 -

125

prm6

Flanger Rate

0 -

125

prm7

Flanger Depth

0

-

127

prm8

Flanger Feedback Level

0

-

98

prm9

Flanger Balance

0

-

100

prm10

Output Level

0

-

127

Type38: CHORUS/DELAY (parallel)

———————+————————————————————————————————+———————————————————————

prm1

Chorus Pre Delay Time

0 -

125

prm2

Chorus Rate

0 -

125

prm3

Chorus Depth

0 -

127

prm4

(not used)

 

 

prm5

Chorus Balance

0 -

100

prm6

Delay Time

0 -

126

prm7

Delay Feedback Level

0 -

98

prm8

Delay HF Damp

0

-

17

prm9

Delay Balance

0

-

100

prm10

Output Level

0

-

127

Type39: FLANGER/DELAY (parallel)

———————+————————————————————————————————+———————————————————————

prm1

Flanger Pre Delay Time

0 -

125

prm2

Flanger Rate

0 -

125

prm3

Flanger Depth

0 -

127

prm4

Flanger Feedback Level

0 -

98

prm5

Flanger Balance

0 -

100

prm6

Delay Time

0 -

126

prm7

Delay Feedback Level

0

-

98

prm8

Delay HF Damp

0

-

17

prm9

Delay Balance

0

-

100

prm10

Output Level

0

-

127

Type40: CHORUS/FLANGER (parallel)

———————+————————————————————————————————+———————————————————————

prm1

Chorus Pre Delay Time

0 -

125

prm2

Chorus Rate

0 -

125

prm3

Chorus Depth

0 -

127

prm4

Chorus Balance

0 -

100

prm5

Flanger Pre Delay Time

0 -

125

prm6

Flanger Rate

0 -

125

prm7

Flanger Depth

0

-

127

prm8

Flanger Feedback Level

0

-

98

prm9

Flanger Balance

0

-

100

prm10

Output Level

0

-

127

MIDI Implementation

Decimal/Hexadecimal Table (hexadecimal values are indicated by a following “H”)

MIDI uses 7-bit hexadecimal values to indicate data values and the address and size of exclusive messages. The following table shows the correspondence between decimal and hexadecimal numbers.

+——————+——————++——————+——————++——————+——————++——————+——————+

 

D

 

H

D

 

H

D

 

H

D

H

 

+——————+——————++——————+——————++——————+——————++——————+——————+

 

0

00H

32

20H

64

40H

96

60H

 

1

01H

33

21H

65

41H

97

61H

 

2

02H

34

22H

66

42H

98

62H

 

3

03H

35

23H

67

43H

99

63H

 

4

04H

36

24H

68

44H

100

64H

 

5

05H

37

25H

69

45H

101

65H

 

6

06H

38

26H

70

46H

102

66H

 

7

07H

39

27H

71

47H

103

67H

 

8

08H

40

28H

72

48H

104

68H

 

9

09H

41

29H

73

49H

105

69H

 

10

0AH

42

2AH

74

4AH

106

6AH

 

11

0BH

43

2BH

75

4BH

107

6BH

 

12

0CH

44

2CH

76

4CH

108

6CH

 

13

0DH

45

2DH

77

4DH

109

6DH

 

14

0EH

46

2EH

78

4EH

110

6EH

Appendices

15

0FH

47

2FH

79

4FH

111

6FH

16

10H

48

30H

80

50H

112

70H

 

17

11H

49

31H

81

51H

113

71H

 

18

12H

50

32H

82

52H

114

72H

 

19

13H

51

33H

83

53H

115

73H

 

20

14H

52

34H

84

54H

116

74H

 

21

15H

53

35H

85

55H

117

75H

 

22

16H

54

36H

86

56H

118

76H

 

23

17H

55

37H

87

57H

119

77H

 

24

18H

56

38H

88

58H

120

78H

 

25

19H

57

39H

89

59H

121

79H

 

26

1AH

58

3AH

90

5AH

122

7AH

 

27

1BH

59

3BH

91

5BH

123

7BH

 

28

1CH

60

3CH

92

5CH

124

7CH

 

29

1DH

61

3DH

93

5DH

125

7DH

 

30

1EH

62

3EH

94

5EH

126

7EH

 

31

1FH

63

3FH

95

5FH

127

7FH

 

+——————+——————++——————+——————++——————+——————++——————+——————+

D: decimal

H: hexadecimal

*Decimal expressions such as used for MIDI channel, Bank Select, and Program Change will be the value 1 greater than the decimal value given in the above table.

*Since each MIDI byte carries 7 significant data bits, each byte can express a maximum of 128 different values. Data for which higher resolution is required must be transmitted using two or more bytes. For example a value indicated as a two-byte value of aa bbH would have a value of aa x 128 + bb.

*For a signed number (+/-), 00H = -64, 40H = +/-0, and 7FH = +63. I.e., the decimal equivalent will be 64 less than the decimal value given in the above table. For a two-byte signed number, 00 00H = -8192, 40 00H = +/-0, and 7F 7FH = +8191. For example the decimal expression of aa bbH would be aa bbH - 40 00H = (aa x 128 + bb - 64 x 128.

*Hexadecimal notation in two 4-bit units is used for data indicated as “nibbled”. The nibbled two-byte value of 0a 0b H would be a x 16 + b.

<Example 1> What is the decimal equivalent of 5AH?

From the above table, 5AH = 90.

<Example 2> What is the decimal equivalent of the 7-bit hexadecimal values 12 34H?

From the above table, 12H = 18 and 34H = 52

Thus, 18 x 128 + 52 = 2356

<Example 3> What is the decimal equivalent of the nibbled expression 0A 03 09 0DH?

From the above table, 0AH = 10, 03H = 3, 09H = 9, 0DH = 13

Thus, the result is ((10 x 16 + 3) x 16 + 9) x 16 + 13 = 41885

<Example 4> What is the nibbled equivalent of the decimal number 1258?

16

) 1258

16

)

78...10

16

)

4...14

 

 

 

 

 

 

0... 4

From the above table, 0=00H, 4=04H, 14=0EH, 10=0AH

Thus the result is 00 04 0E 0AH

85

Page 85
Image 85
Roland JV-1010 owner manual Type33 ENHANCER→ Flanger serial, Type34 ENHANCER→ Delay serial, Type35 CHORUS→ Delay serial

JV-1010 specifications

The Roland JV-1010 is a compact and versatile synthesizer and sound module that has made a significant impact on the music production landscape since its introduction in the mid-1990s. Renowned for its extensive sound library and superior sound quality, the JV-1010 stands as a go-to device for musicians looking for a powerful yet portable instrument.

One of the standout features of the JV-1010 is its expansive sound engine, which houses 1,024 patches and 36 voices of polyphony. This allows for complex musical layers without the risk of cutting off notes. The built-in digital effects processor comes with 40 types of effects, including reverb, chorus, and flanger, enabling users to further enhance their sounds and create unique tonal textures.

The sound generation technology behind the JV-1010 is based on the JV-1080 platform, leveraging Roland's acclaimed 'SR-JV80' expansion board technology. This modular approach allows users to expand their sonic capabilities by adding additional sound banks, providing access to a wide range of genres and instruments. Notably, the synthesizer includes sounds from various musical traditions, from orchestral to electronic, making it suitable for diverse musical styles.

Another key characteristic of the JV-1010 is its user-friendly interface. It features a clear LCD screen and organized button layout, making it easy for musicians to navigate through its extensive library. Additionally, the unit supports MIDI connectivity, allowing it to seamlessly integrate with other MIDI-compatible gear, such as keyboards, drum machines, and computers. This makes the JV-1010 an excellent choice for studios and live performance settings alike.

The compact size of the JV-1010, which allows it to easily fit into a standard rack mount or travel setup, adds to its appeal, especially for mobile musicians. The lightweight design does not compromise its durability, ensuring it can withstand the rigors of frequent transport.

Overall, the Roland JV-1010 synthesizer is a powerhouse of sound engineering, providing musicians with a rich palette of tones and textures. Its robust feature set, expansion capabilities, and portability make it a timeless instrument that continues to be appreciated by both seasoned professionals and emerging artists in the music industry. Whether used for studio production, live performance, or sound design, the JV-1010 remains a reliable choice for those seeking high-quality musical tools.