TECHNICAL FIELD
[0001] This invention relates to a joint connector.
BACKGROUND ART
[0002] A wiring harness is arranged in a car so as to transmit data about conditions of
a control devise or an engine, a driving speed or failure diagnosis through CAN (Control
Area Network). Such wiring harness is connected electrically to a plurality of sub
harnesses. The sub harness includes a joint connector for separating an electric circuit.
[0003] The joint connector includes a ferrite component to remove noise overlapped on the
data for reducing bad effect on transmitting data, which controls various electric
unit mounted in the car through CAN communication, by noise radiation (for example,
see patent documents 1-3).
[0004] The joint connector shown in patent documents 1-3 includes a connector housing to
be fitted with a mating connector, and a terminal received in the connector housing
so as to be electrically connected with a terminal of the mating connector. The terminal
is formed by electrically conductive sheet metal and including a bar shape busbar,
and a plurality of needle shape terminal portions extending from the busbar so as
to be connected with the terminal of the mating connector. The terminal is provided
at the needle shape terminal portions with a ferrite component to be inserted to the
needle shape terminal portions.
CITATION LIST
Patent Document
[0005]
Patent Document 1: Japan Patent Application Published No. 2008-218038
Patent Document 2: Japan Patent Application Published No. 2008-131327
Patent Document 3: Japan Patent Application Published No. 2010-170985
SUMMAERY OF INVENTION
Objects to be solved
[0006] According to the above usual joint connector shown in patent document 1, there is
a problem that a structure of the joint connector becomes complicated by providing
a plurality of through holes, through which the needle shape terminals are inserted,
at the ferrite component, so that strict dimension control is required, and resulted
in increasing cost. Furthermore, there is troublesome that the ferrite component formed
specifically is required.
[0007] A usual joint connector shown in the patent document 2 or 3 is provided at a needle
shape terminal portion with a ferrite component. Thereby, an interval between the
needle shape terminal portions is wider than an interval between terminals of usual
general-purpose connector, so that there is a problem that the joint connector becomes
larger than the general-purpose connector Document
WO2012/039510 A1 discloses a joint connector comprising the features disclosed in the preamble of
independent claims 1 and 2.
[0008] According to the above problems, an object of the present invention is to provide
a joint connector which has an interval between needle shape terminal portions, which
insert through each ferrite component, same as an interval between terminals of a
general-purpose connector, so as to be electrically connectable with the usual general-purpose
connector, and is miniaturized. How to attain the object of the present invention
[0009] In order to overcome the above problems and attain the object, the present invention
is to provide a joint connector as disclosed in independent claims 1 and 2, which
includes a terminal, a ferrite core arranged at the terminal, and a connector housing
receiving the terminal, and in which the terminal includes a busbar and a plurality
of needle shape terminal portions extending from the busbar at an interval along a
lengthwise of the busbar, and the ferrite core includes a first ferrite core arranged
at a base end of the needle shape terminal portion and a second ferrite core arranged
at an intermediate portion of the needle shape terminal portion, and the first ferrite
core and the second ferrite core are arranged alternately at each of the plurality
of needle shape terminal portions.
[0010] The joint connector is further specified that the interval between the needle shape
terminal portions is formed same as an interval between terminals of a general-purpose
connector.
[0011] The joint connector mentioned above is further specified that the housing includes
an inner housing in which the terminal is arranged, and an outer housing having an
inner housing receiving section receiving the inner housing, and the inner housing
includes a busbar receiving section receiving the busbar of the terminal and a first
ferrite core receiving section receiving the base end of the needle shape terminal
portion of the terminal and the first ferrite core, and a second ferrite core receiving
section receiving the intermediate portion of the needle shape terminal portion and
the second ferrite core, and the first ferrite core receiving section and the second
ferrite core receiving section are arranged alternately about the plurality of needle
shape terminal portions, and a first proj ectionwhichproj ects toward the first ferrite
core receiving section and opens a through hole which the needle shape terminal portion
is inserted, and a second projection which projects toward the second ferrite core
receiving section and opens a through hole which the needle shape terminal portion
is inserted.
Effects of the Invention
[0012] According to the above-mentioned invention, the first ferrite core arranged at base
end of the needle shape terminal portion and the second ferrite core arranged at the
intermediate portion of the needle shape terminal portion are alternately provided
about the plurality of needle shape terminal portions. Thereby, without changing dimensions
of the first ferrite core and the second ferrite core, an interval between the needle
shape terminal portions can be shortened. Therefore, the terminal including the needle
shape terminal portions can be miniaturized and the joint connector can be miniaturized.
[0013] According to the above-mentioned invention, the interval between the needle shape
terminal portions is formed same as the interval between terminals of the general-purpose
connector. The joint connector can be connected with the general-purpose connector.
Thus, the joint connector which is miniaturized and has capability of general-purpose
can be provided.
[0014] According to the above-mentioned invention, the busbar of the terminal is received
in the busbar receiving section of the first inner housing, and the first ferrite
core is received in the first ferrite core receiving section, and the second ferrite
core is received in the second ferrite core receiving section of the second inner
housing, and the first ferrite core receiving section and the second ferrite core
receiving section are provided alternately about the plurality of needle shape terminal
portion. Thereby, without changing dimensions of the first ferrite core and the second
ferrite core, an interval between the needle shape terminal portions can be shortened
with a relative simple structure. Therefore, the joint connector, which is miniaturized
with a simple structure, can be provided.
BRIEF DESCRIPTION OF DRAWINGS
[0015]
Fig. 1 is a perspective view of a first embodiment of a joint connector according
to the present invention;
Fig. 2 is a cross-sectional view taken along the line II-II in Fig. 1;
Fig. 3 is an exploded perspective view of the joint connector shown in Fig. 1;
Fig. 4 is a perspective view for explaining assembling the joint connector shown in
Fig. 1;
Fig. 5 is a perspective view for explaining connection of the joining connector shown
in Fig. 1 and a mating connector; and Fig. 6 is a cross-sectional view of one modification
of the joint connector according to present invention.
DESCRIPTION OF EMBODIMENTS
[0016] Figs. 1-6 show a first embodiment of a joint connector according to the present invention.
As shown in Figs. 1 and 2, the joint connector 1 of the embodiment according to the
present invention includes a terminal 3 which is electrically connected with a terminal
of a general-purpose connector 62 of a sub wiring harness 61 (shown in Fig. 5), and
a connector housing 2 receiving the terminal 3 and being connected to the general-purpose
connector.
[0017] The terminal 3 is formed into a comb shape by an electrically conductive metal sheet
as shown in Figs. 2 and 3. The terminal 3 includes a busbar 28 formed into a narrow
bar plate, and a plurality of needle shape terminal portions 29 (11 pins for example)
extending from the busbar 28 in a direction perpendicular to the busbar 28. The terminal
3 is formed by pressing. As shown in Fig. 4, a plurality of terminals 3a, 3b (2 sheet
for example) is arranged in parallel to each other along a direction of thickness
of the terminal 3.
[0018] In the busbar 28, a plurality of holes 31 (10 pieces for example) is arranged at
even intervals along a lengthwise direction of the busbar 28. Engaging projections
32, 32 which are engaged with an inner wall of a busbar receiving section 12 of a
later-described first inner housing 6 are provided at both ends along the lengthwise
direction of the busbar 28. Projecting height of the engaging projection is configured
to increase toward the needle shape terminal portions 29.
[0019] As shown in Figs. 2 and 3, the needle shape terminal portions 29 are provided at
even intervals in parallel to each other along the lengthwise direction of the busbar
28. Top end 29c of the needle shape terminal portion 29 is formed into a tapered shape
so as to be inserted easily into a female terminal of the general-purpose connector.
The needle shape terminal portion 29 is designed to have a length so as to connect
electrically with the terminal of the general-purpose connector 62 when connect a
connect portion 9 of the connector housing 2 and the general-purpose connector 62.
An interval between the needle shape terminal portions 29 is designed same as an interval
between the terminals of the general-purpose connector 62.
[0020] As shown in Figs. 2 and 3 , the connector housing 2 includes the first inner housing
6 in which the busbar receiving section 12 receiving the busbar 28 of the terminal
3 is formed; and a second housing 7 arranged in a row with the first inner housing
6; and an outer housing 5 receiving the first inner housing 6 and the second inner
housing 7. The connector housing 2 is made of insulation synthetic resin such as polyvinyl
chloride resin.
[0021] As shown in Fig. 4, the first inner housing 6 includes a plurality of first ferrite
core receiving sections 21 (6 pieces in the embodiment) receiving a first ferrite
core 10a which is arranged at a base end 29a of the needle shape terminal portion
29 of the terminal 3 and communicating with the busbar receiving section 12. The first
inner housing 6 is provided at both ends along a lengthwise direction with lock projections
40, 40 to be engaged with lock hooks 14, 14 arranged at an inner housing receiving
section 38 of the later-described outer housing 5.
[0022] As shown in Figs. 2-4, a length of the busbar receiving section 12 is configured
to engage the lock projections 32, 32 of the busbar 28 of the terminal 3, and a depth
of the busbar receiving section 12 is configured to receive the two terminals 3a,
3b in parallel.
[0023] As shown in Figs. 2 and 3, a plurality of first ferrite core receiving sections 21
(6 sections in the embodiment) is arranged in parallel with a lengthwise direction
of the busbar 28 of the terminal 3 at even intervals along the lengthwise direction
of the busbar 28. A plurality of through holes 37 (5 holes in the embodiment), which
the needle shape terminal portion 29 of the terminal 3 is inserted through, is arranged
between the first ferrite core receiving sections 21 adjacent to each other. As shown
in Fig. 4, the first ferrite core receiving sections 21 is formed into rectangular
shape, which each one of the needle shape terminal portions 29 of the two terminals
3a, 3b is inserted through, and the later-described first ferrite core 10a is received
in. In the embodiment, each of the needle shape terminal portions 29 odd-numbered
from an end of the terminal 3 is inserted through the first ferrite core receiving
section 21.
[0024] As shown in Figs. 2 and 3, the second inner housing 7 includes a plurality of first
projections 23 (6 pieces in the embodiment) abutting the first ferrite core 10a received
in the first ferrite core receiving section 21 of the first inner housing 6 so as
to prevent rattle motion of the first ferrite core 10a; a plurality of through holes
24 (6 holes in the embodiment) communicating with the first projection 23 and inserting
the needle shape terminal portion 29 of the terminal 3 therethrough; a second ferrite
core receiving section 36 receiving the second ferrite core 10b, which is arranged
between the through holes 24 at an intermediate portion 29b of the needle shape terminal
portion 29, and inserts the needle shape terminal portion 29 of the terminal 3 through.
The second inner housing 7 is provided at both ends thereof along a lengthwise direction
of the second inner housing 7 with a convex portion 26 engaged with an inner wall
of the inner housing receiving section of the outer housing 5.
[0025] The first projection 23, as shown in Figs 2 and 3, is configured to have a projection
height so as to abut on the first ferrite core 10a received in the first ferrite core
receiving section 21 of the first inner housing 6. The first projection 23 is arranged
at an end of the through hole 24 which each of needle shape terminal portion 29 of
the two terminals 3a, 3b is inserted through. Dimensional relation between the first
projection 23 and the first ferrite core 10a can be adjusted suitably in any cases
of abutting to each and not abutting.
[0026] The through hole 24 is formed into a round shape so as to insert the needle shape
terminal portion 29 of the terminal 3. Two rows of the through holes 24 are arranged
so as to insert each of the needle shape terminal portions 29 of the two terminals
3a, 3b.
[0027] As shown in Figs. 2 and 3, a plurality of the second ferrite core receiving sections
36 (5 sections in the embodiment) is arranged in parallel to the lengthwise direction
of the busbar 28 of the terminal 3 at even interval along the lengthwise direction
of the busbar 28. The through holes 24 are provided at both side walls of each of
the second ferrite core receiving sections 36. The second ferrite core receiving section
36, as shown in Fig. 4, is formed into a rectangular shape, which each one of the
needle shape terminal portions 29 of the two terminals 3a, 3b is inserted through,
and the later-described second ferrite core 10b is received in. In the embodiment,
each of the needle shape terminal portions 29 even-numbered from the end of the terminal
3 is inserted through the second ferrite core receiving section 36.
[0028] As shown in Figs. 2 and 3, the outer housing 5 includes the connect portion 9 connecting
with the above-mentioned general-purpose connector, and the inner housing receiving
section 38 receiving the first inner housing 6 and the second inner housing 7.
[0029] As shown in Fig. 3, the connect portion 9 is formed into a cylindrical shape with
a rectangular cross-section, and provided at an inner wall with a guide portions 15,
15 controlling mount direction for connecting with the general-purpose connector.
The connect portion 9 is provided with an engaging portion engaging with a not-shown
engaging member arranged at the general-purpose connector.
[0030] As shown in Fig. 3, the inner housing receiving section 38 includes lock hooks 14,
14 engaging with the lock projections 40, 40 formed at the both ends of the first
inner housing 6, and inner surfaces 13, 13 pushed by the convex portions 26, 26 arranged
at the both ends of the second inner housing 7, and a press portion 16 abutting on
the second inner housing 7.
[0031] As shown in Figs. 2 and 3, the lock hooks 14, 14 are arranged at the both side walls
of the outer housing so as to increase projecting height along the taper surface of
the lock projections 40, 40. As shown in Fig. 4, slits 51 are provided at the lock
hooks 14, 14 so as to move the lock hooks 14, 14 flexibly.
[0032] Adistance between the inner surfaces 13, 13 is configured to be slightly wider than
a width of the second inner housing 7 and be wide so that the convex portions 26,
26 of the second inner housing 7 push the inner surfaces 13, 13.
[0033] The press portion 16 includes a plurality of second projections 17 (5 pieces in the
embodiment) preventing rattle motion of the second ferrite core 10b received in the
second ferrite core receiving section 36; and a plurality of through holes 19 (6 holes
in the embodiment) arranged at both sides of the second projection 17 so as to insert
the needle shape terminal portion 29 of the terminal 3 therethrough.
[0034] The second projection 17 is configured to have a projection height so as to abut
on the second ferrite core 10b received in the second ferrite core receiving section
36. The second projection 17 is provided with a through hole 18 which each of needle
shape terminal portion 29 even-numbered from the end of the two terminal 3 is inserted
through.
The through hole 18 is formed into a round shape having a diameter so as to insert
the needle shape terminal portion 29. Dimensional relation between the second projection
17 and the second ferrite core 10b can be adjusted suitably in any cases of abutting
to each and not abutting.
[0035] The through hole 19 of the press portion 16 is formed into a round shape so as to
insert the needle shape terminal portion 29 odd-numbered from the end of the terminal
3.
[0036] The ferrite core 10 includes the first ferrite core 10a and the second ferrite core
10b. As shown in Figs. 2-4, the ferrite core 10 is formed into a cubic shape so as
to have a plurality of through holes 11 (2 holes in the embodiment) which each of
needle shape terminal portions 29 of the two terminals 3a and 3b. The first ferrite
core 10a and the second ferrite core 10b correspond to a ferrite core for removing
high frequency noise. The first ferrite core 10a and the second ferrite core 10b are
made of known metallic oxide ferromagnetic material manufactured by known manufacturing
method.
[0037] In the embodiment, the first ferrite core 10a is the ferrite core received in the
first ferrite core receiving section 21 of the first inner housing 6, and the second
ferrite core 10b is the ferrite core received in the second ferrite core receiving
section 36 of the second inner housing 7. That is the same ferrite core is applied
to the first ferrite core 10a and the second ferrite core 10b.
[0038] Eachof the needle shape terminal portion 29 odd-numbered from the end of the terminal
3a, 3b is inserted through the first ferrite core 10a received in the first ferrite
core receiving section 21 of the first inner housing 6. Each of the needle shape terminal
portion 29 even-numbered from the end of the terminal 3a, 3b is inserted through the
second ferrite core 10b received in the second ferrite core receiving section 36 of
the second inner housing 7.
[0039] Assembling process of the joint connector 1 structured above will be described hereafter.
The outer housing 5, the first inner housing 6, the second inner housing 7, the terminals
3a, 3b, the first ferrite core 10a, and the second ferrite core 10b are separately
and previously manufactured.
[0040] As shown in Fig. 4, the terminals 3a, 3b are press-fitted into the first inner housing
6 and fixed therein. The plurality of first ferrite cores 10a is received in the plurality
of first ferrite core receiving sections 21 of the first inner housing 6. Each of
the needle shape terminal portion 29 odd-numbered from the end of the terminal 3a,
3b is inserted through the first ferrite core 10a.
[0041] Successively, eachof the needle shape terminal portions 29 odd-numbered from the
end of terminal 3a, 3b is inserted through the through hole 24 of each of the plurality
of first projections 23 of the second inner housing 7, and each of the needle shape
terminal portions 29 even-numbered from the end of the terminal 3a, 3b is inserted
through the through hole 25 of each of the plurality of second ferrite core receiving
sections 36 of the second inner housing 7. Thereby, the second inner housing 7 is
arranged on the first inner housing 6. The first ferrite core 10a and the second ferrite
core 10b are arranged in two stages at interval along the lengthwise direction of
the needle shape terminal portion 29. Thus, each of the needle shape terminal portions
29 odd-numbered is inserted through the first ferrite core 10a and each of the needle
shape terminal portions 29 even-numbered is inserted through the second ferrite core
10b. Therefore, the interval between the needle shape terminal portions 29 in the
case can be reduced smaller than the interval when a plurality of ferrite cores is
arranged in the same plane.
[0042] Successively, each of the plurality of second ferrite cores 10b is received in each
of the plurality of second ferrite core receiving sections 36 of the second inner
housing 7. At the time, each of the needle shape terminal portions 29 even-numbered
from the end of the terminal 3a, 3b is inserted through the second ferrite core 10b.
[0043] The first inner housing 6 and the second inner housing 7 are inserted into and fixed
in the inner housing receiving section 38 of the outer housing 5. At the time, the
lock projections 40, 40 of the first inner housing 6 is engaged with the lock hooks
14, 14 of the inner housing receiving section 38, and the convex portions 26, 26 push
the inner surface 13 of the inner housing receiving section 38, so that the first
inner housing 6 and the second inner housing 7 are securely fixed in the outer housing
5.
[0044] The joint connector 1 assembled as shown above is connected with the sub harness
61 having a plurality of electric wires 63 (22 wires in the embodiment) and the general-purpose
connector 62 (male connector) joined at an end of the plurality of electric wires
63. At the time, the interval of the terminal of the general-purpose connector 62
and the interval of the terminal 3 of the joint connector according to the present
invention are designed to be the same value. Thereby, the general-purpose connector
62 can be fitted into the connect portion 9 of the joint connector 1 so that terminals
of the both connectors can be electrically connected.
[0045] In the embodiment, the joint connector 1 has 22 pins which is formed by two terminals
3a, 3b each having 11 pins of the needle shape terminal portions 29. As shown in Fig.
6, the joint connector 1 can have 38 pins formed by 19 pins of the needle shape terminal
portions 29. Oppositely, the joint connector 1 can have smaller number of pins than
22 pins. For any number of pins, the joint connector according to the present invention
maintains the dimensions of the ferrite core 10, and the interval between the needle
shape terminal portions 29 of the terminal 3 is not changed, so that the joint connector
1 can be connected with the general-purpose connector 62. Number of pins of the joint
connector 1 can be adjusted to that of the general-purpose connector 62.
[0046] According to the embodiment, the joint connector 1 includes the terminal 3 provided
with the ferrite core 10, and the connector housing 5 receiving the terminal 3. The
terminal 3 includes the busbar 28 and the plurality of needle shape terminal portions
29 extending from the busbar 28 at intervals along the direction of the lengthwise
of the busbar 28. The ferrite core 10 includes the first ferrite core 10a arranged
at the base end 29a of the needle shape terminal portion 29 and the second ferrite
core 10b arranged at the intermediate portion 29b of the needle shape terminal portion
29. The first ferrite core 10a and the second ferrite core 10b are arranged alternately
at the plurality of needle shape terminal portions 29. Furthermore, the interval between
the needle shape terminal portions 29 is formed same as the interval between the terminals
of the general-purpose connector 62.
[0047] Thus, The first ferrite core 10a arranged at the base end 29a of the needle shape
terminal portions 29 and the second ferrite core 10b arranged at the intermediate
portion 29b of the needle shape terminal portions 29 are arranged alternately at the
plurality of needle shape terminal portions 29, so that without change the dimensions
of the first ferrite core 10a and the second ferrite core 10b, the intervals between
the needle shape terminal portions 29 can be shortened. Therefore, the terminal 3
provided with the needle shape terminal portions 29 can be miniaturized, so that the
joint connector 1 can be miniaturized.
[0048] The interval between the needle shape terminal portions 29 is formed same as the
interval between the terminals of the general-purpose connector 62, so that the joint
connection has general-purpose performance so as to connect with the general-purpose
connector 62. Thus, the joint connector which is miniaturized and general-purpose,
can be provided.
Remarks
[0049]
- 1
- Joint connector
- 2
- Connector housing
- 3
- Terminal
- 5
- Outer housing
- 6
- First inner housing
- 7
- Second inner housing
- 10
- Ferrite core
- 10a
- First ferrite core
- 10b
- Second ferrite core
- 12
- Busbar receiving section
- 17
- Second projection
- 18
- Through hole
- 21
- First ferrite receiving section
- 23
- First projection
- 24
- Through hole
- 28
- Busbar
- 29
- Needle shape terminal portion
- 36
- Second ferrite receiving section
1. A joint connector (1), comprising:
a terminal (3) including a busbar (28) and a plurality of needle shape terminal portions
(29) extending from the busbar (28) at intervals along a lengthwise direction of the
busbar (28);
a ferrite core (10) arranged at the terminal (3);
a connector housing (2) receiving the terminal (3) and being adapted to be fitted
with a mating connector (62),
characterized in that
the ferrite core (10) comprises a first ferrite core (10a) arranged at a base end
(29a) of the needle shape terminal portions (29) odd-numbered from an end of the terminal
(3) and a second ferrite core (10b) arranged at an intermediate portion (29b) of the
needle shape terminal portions (29) even-numbered from said end of the terminal (3).
2. A joint connector (1), comprising:
a terminal (3) including a busbar (28) and a plurality of needle shape terminal portions
(29) extending from the busbar (28) at intervals along a lengthwise direction of the
busbar (28);
a ferrite core (10) arranged at the terminal (3);
a connector housing (2) receiving the terminal (3) and being adapted to be fitted
with a mating connector (62),
characterized in that
the ferrite core (10) comprises a first ferrite core (10a) arranged at a base end
(29a) of the needle shape terminal portions (29) even-numbered from an end of
the terminal (3) and a second ferrite core (10b) arranged at an intermediate portion
(29b) of the needle shape terminal portions (29) odd-numbered from said end of the
terminal (3).
3. The joint connector (1) according to claim 1 or 2, wherein the needle shape terminal
portions (29) are arranged so as to have a same interval as an interval between terminals
(3) of the mating connector (62).
4. The joint connector (1) according to any of claims 1 to 3, wherein the connector housing
(2) comprises an inner housing, in which the terminal (3) is arranged, and an outer
housing (5) having an inner housing receiving section receiving the inner housing,
wherein the inner housing comprises
a first inner housing (6) comprising a busbar receiving section (12) receiving the
busbar (28) of the terminal (3), and a first ferrite core receiving section (21) receiving
the first ferrite core (10a), wherein the base end (29a) of the needle shape terminal
portion (29) of the terminal (3) is inserted through the first inner housing (6);
and
a second inner housing (7) comprising a second ferrite core receiving section (36)
receiving the second ferrite core (10b), wherein the intermediate portion (29b) of
the needle shape terminal (3) portion of the terminal (3) is inserted through the
second inner housing (7), and
the first ferrite core receiving section (21) and the second ferrite core receiving
section (36) are arranged alternately at each of the plurality of needle shape terminal
portions (29),
wherein the second inner housing (7) is provided with a first projection (23) projecting
toward the first ferrite core receiving section (21) and opening a through hole (24)
which the needle shape terminal (3) portion is inserted through, and the inner housing
receiving section is provided with a second projection (17) projecting toward the
second ferrite core receiving section (36) and opening another through hole (18) which
the needle shape terminal portion (29) is inserted through.
1. Steckverbinder (1), der umfasst:
einen Anschluss (3), der eine Sammelschiene (28) sowie eine Vielzahl nadelförmiger
Anschlussabschnitte (29) einschließt, die sich von der Sammelschiene (28) in Intervallen
in einer Längsrichtung der Sammelschiene (28) erstrecken;
einen Eisenkern (10), der an dem Anschluss (3) angeordnet ist;
ein Verbindergehäuse (2), das den Anschluss (3) aufnimmt und so eingerichtet ist,
dass es mit einem Gegenverbinder (62) ineinandergepasst wird,
dadurch gekennzeichnet, dass
der Eisenkern (10) einen ersten Eisenkern (10a), der an einem unteren Ende (29a) der
nadelförmigen Anschlussabschnitte (29) in ungerader Zahl von einem Ende des Anschlusses
(3) her angeordnet ist, sowie einen zweiten Eisenkern (10b) umfasst, der an einem
Mittelabschnitt (29b) der nadelförmigen Anschlussabschnitte (29) in gerader Zahl von
dem Ende des Anschlusses (3) her angeordnet ist.
2. Steckverbinder (1), der umfasst:
einen Anschluss (3), der eine Sammelschiene (28) sowie eine Vielzahl nadelförmiger
Anschlussabschnitte (29) einschließt, die sich von der Sammelschiene (28) in Intervallen
in einer Längsrichtung der Sammelschiene (28) erstrecken;
einen Eisenkern (10), der an dem Anschluss (3) angeordnet ist;
ein Verbindergehäuse (2), das den Anschluss (3) aufnimmt und so eingerichtet ist,
dass es mit einem Gegenverbinder (62) ineinandergepasst wird,
dadurch gekennzeichnet, dass
der Eisenkern (10) einen ersten Eisenkern (10a), der an einem unteren Ende (29a) der
nadelförmigen Anschlussabschnitte (29) in gerader Zahl von einem Ende des Anschlusses
(3) hier angeordnet ist, sowie einen zweiten Eisenkern (10b) umfasst, der an einem
Mittelabschnitt (29b) der nadelförmigen Anschlussabschnitte (29) in ungerader Zahl
von dem Ende des Anschlusses (3) her angeordnet ist.
3. Steckverbinder (1) nach Anspruch 1 oder 2, wobei die nadelförmigen Anschlussabschnitte
(29) so angeordnet sind, dass sie das gleiche Intervall wie ein Intervall zwischen
Anschlüssen (3) des Gegenverbinders (62) haben.
4. Steckverbinder (1) nach einem der Ansprüche 1 bis 3, wobei das Verbindergehäuse (2)
ein inneres Gehäuse, in dem der Anschluss (3) angeordnet ist, sowie ein äußeres Gehäuse
(5) umfasst, das einen Abschnitt zum Aufnehmen des inneren Gehäuses aufweist, der
das innere Gehäuse aufnimmt,
wobei das innere Gehäuse umfasst:
ein erstes inneres Gehäuse (6), das einen Abschnitt (12) zum Aufnehmen der Sammelschiene,
der die Sammelschiene (28) des Anschlusses (3) aufnimmt, sowie einen Abschnitt (21)
zum Aufnehmen des ersten Eisenkerns umfasst, der den ersten Eisenkern (10a) aufnimmt,
wobei das untere Ende (29a) des nadelförmigen Anschlussabschnitts (29) des Anschlusses
(3) über das erste innere Gehäuse (6) eingeführt wird; und
ein zweites inneres Gehäuse (7), das einen Abschnitt (36) zum Aufnehmen des zweiten
Eisenkerns umfasst, das den zweiten Eisenkern (10b) aufnimmt, wobei der Mittelabschnitt
(29b) des nadelförmigen Anschlussabschnitts (3) des Anschlusses (3) über das zweite
innere Gehäuse (7) eingeführt wird, und
der Abschnitt (21) zum Aufnehmen des ersten Eisenkerns und der Abschnitt (36) zum
Aufnehmen des zweiten Eisenkerns abwechselnd an jedem der Vielzahl nadelförmiger Anschlussabschnitte
(29) angeordnet sind,
wobei das zweite innere Gehäuse (7) mit einem ersten Vorsprung (23) versehen ist,
der auf den Abschnitt (21) zum Aufnehmen des ersten Eisenkerns zu vorsteht und sich
zu einem Durchgangsloch (24) öffnet, über das der nadelförmige Anschlussabschnitt
(3) eingeführt wird, und der Abschnitt zum Aufnehmen des inneren Gehäuses mit einem
zweiten Vorsprung (17) versehen ist, der auf den Abschnitt (36) zum Aufnehmen des
zweiten Eisenkerns zu vorsteht und sich zu einem weiteren Durchgangsloch (18) öffnet,
über das der nadelförmige Anschlussabschnitt (29) eingeführt wird.
1. Connecteur de raccordement (1) comprenant :
une borne (3) incluant une barre conductrice (28) et une pluralité de parties terminales
en forme d'aiguilles (29) s'étendant depuis la barre conductrice (28) à intervalles
réguliers dans le sens longitudinal de la barre conductrice (28) ;
un noyau de ferrite (10) disposé au niveau de la borne (3) ;
un boîtier de connecteur (2) recevant la borne (3) et étant adapté pour être relié
à un connecteur homologue (62),
caractérisé en ce que
le noyau de ferrite (10) comprend un premier noyau de ferrite (10a) disposé au niveau
d'une section de base (29a) des parties terminales en forme d'aiguilles (29) de nombre
impair à compter d'une extrémité de la borne (3) et un second noyau de ferrite (10b)
disposé au niveau d'une section intermédiaire (29b) des parties terminales en forme
d'aiguilles (29) de nombre pair à compter de ladite extrémité de la borne (3).
2. Connecteur de raccordement (1) comprenant :
une borne (3) incluant une barre conductrice (28) et une pluralité de parties terminales
en forme d'aiguilles (29) s'étendant depuis la barre conductrice (28) à intervalles
dans le sens longitudinal de la barre conductrice (28) ;
un noyau de ferrite (10) disposé au niveau de la borne (3) ;
un boîtier de connecteur (2) recevant la borne (3) et étant adapté pour être relié
à un connecteur homologue (62),
caractérisé en ce que
le noyau de ferrite (10) comprend un premier noyau de ferrite (10a) disposé au niveau
d'une section de base (29a) des parties terminales en forme d'aiguilles (29) de nombre
pair à compter d'une extrémité de la borne (3) et un second noyau de ferrite (10b)
disposé au niveau d'une section intermédiaire (29b) des parties terminales en forme
d'aiguilles (29) de nombre impair à compter de ladite extrémité de la borne (3).
3. Connecteur de raccordement (1) selon la revendication 1 ou 2, où les parties terminales
en forme d'aiguilles (29) sont disposées de manière à ce qu'elles soient séparées
du même intervalle que l'intervalle entre les bornes (3) du connecteur homologue (62).
4. Connecteur de raccordement (1) selon l'une quelconque des revendications 1 à 3, où
le boîtier de connecteur (2) comprend un boîtier interne, dans lequel la borne (3)
est disposée, et un boîtier externe (5) comportant une section de réception du boîtier
interne recevant le boîtier interne,
où le boîtier interne comprend
un premier boîtier interne (6) comprenant une section de réception de la barre conductrice
(12) recevant la barre conductrice (28) de la borne (3), et une section de réception
du premier noyau de ferrite (21) recevant le premier noyau de ferrite (10a), où la
section de base (29a) des parties terminales en forme d'aiguilles (29) de la borne
(3) est insérée à travers le premier boîtier interne (6) ; et
un second boîtier interne (7) comprenant une section de réception du second noyau
de ferrite (36) recevant le second noyau de ferrite (10b), où la section intermédiaire
(29b) des parties terminales en forme d'aiguilles (29) de la borne (3) est insérée
à travers le second boîtier interne (7), et
la section de réception du premier noyau de ferrite (21) et la section de réception
du second noyau de ferrite (36) sont disposées alternativement à chacune de la pluralité
de parties terminales en forme d'aiguilles (29),
où le second boîtier interne (7) est pourvu d'une première saillie (23) faisant saillie
vers la section de réception du premier noyau de ferrite (21) et formant un trou traversant
(24) à travers lequel la partie en forme d'aiguille de la borne (3) est insérée, et
la section de réception du boîtier interne est pourvue d'une seconde saillie (17)
faisant saillie vers la section de réception du second noyau de ferrite (36) et formant
un autre trou traversant (18) à travers lequel la partie en forme d'aiguille de la
borne (29) est insérée.