Abstract:
The present invention relates to a gel sealing device for sealing a passage of elongate parts through an opening. Such gel sealing device is preferably arranged in a housing used in telecommunication technology. The present invention solves the problem of providing a gel sealing device having improved cable access properties. The inventive gel sealing device comprises a gel sealing block ( 5 ) which provides a sealing section ( 22 ) through which the elongate parts ( 13, 14 ) extend, wherein the gel sealing block ( 5 ) comprises an upper flange ( 11 ) and a lower flange ( 12 ) with a support section ( 11   a,    12   a,    12   b ) disposed therebetween. The upper and lower flanges ( 11, 12 ) sandwiches in direction of extension of the elongate parts ( 13, 14 ), a gel inner ring ( 7 ) supported by said support section ( 2 ) and a gel outer ring ( 6, 10   a ) covering the gel inner ring ( 7 ) in a radial direction extending transverse to said extension direction. The gel inner ring ( 7 ) and the gel outer ring ( 6, 10   a ) are made of a gel sealing material, wherein the sealing section ( 22 ) is formed therebetween. The gel outer ring ( 6, 10   a ) comprises a first circumferential segment ( 6 ) and at least one second circumferential segment ( 10   a ) which is adapted to be detachable from the first circumferential segment ( 6 ) to provide a separate accessible sealing section.

Description:
This application is a National Stage Application of PCT/EP2010/068362, filed 29 Nov. 2010, which claims benefit of Serial No. 09014999.8, filed 3 Dec. 2009 in Europe and which applications are incorporated herein by reference. To the extent appropriate, a claim of priority is made to each of the above disclosed applications. 
     BACKGROUND 
     The present invention relates to a gel sealing device for sealing a passage of elongate parts through an opening. The gel sealing device provides a sealing section through which the elongate parts extends, wherein the gel sealing device comprises a gel sealing block having an upper flange and a lower flange with a support section disposed therebetween for supporting a gel ring sandwiched between the flanges in direction of extension of the elongate parts and which forms the sealing section. 
     Such a gel sealing device is e.g. known from WO 2005/027290 A1, which finds particular application in the field of telecommunications technology to which the present invention also preferably relates. 
     The known gel sealing device is accommodated in a lower housing body which is connectable to an upper housing body which forms a cable organizing area and is provided with a foldable gel ring comprising two semicircular gel ring segments which abut against each other in a radial inner area of the gel sealing device to form a common sealing section therebetween through which a plurality of cables extends. Conventionally, the plurality of cables comprises at least one cable from a provider site and at least one cable ranging to a customer site, e.g. a dwelling unit, wherein said provider cable and said customer cable are spliced within the organising area provided in an area of the upper housing body in which the splicing is sealed against environmental influences. The provider cable denoting a main cable may comprise one or more signal transmitting elements, such as an optical fibre element or a metal wire element, which is at last surrounded by an outer jacket protecting said element. The customer cable normally comprises an optical fibre element or a metal wire element to be spliced with the assigned element of the main cable in the organizing area of the upper housing body, wherein said optical fibre element or metal wire element is also protected by an outer jacket or a tube as e.g. used in blown fibre application. 
     Normally, the housing and the gel sealing device are accessed during its lifetime for several times in order to install individually, further cables at different times. Thereby, the sealing section through which the cables extend, needs to be made accessible for introducing therein, the further cables to be installed. By the accessing of the sealing section, all cables extending therethrough are exposed accessibly. Accordingly, during installation of further cables, particular attention is demanded for the cables already installed and extending through the gel sealing device to prevent damage or the like of said cables. 
     SUMMARY 
     It is an object of the present invention to provide a gel sealing device for sealing a passage of elongate parts through an opening, wherein said gel sealing device has improved cable access properties. 
     The present invention is based on the concept that the gel sealing device has a gel sealing block which comprises a gel inner ring and a gel outer ring covering the gel inner ring in a radial direction and comprising a first circumferential segment and at least one second circumferential segment which is adapted to be detachable from the first circumferential segment to provide a separate accessible sealing section. Detachment in the sense of the present invention relates to a release of the respective part and also to a reassemble of said part after releasing it. Particularly, the at least one second circumferential segment is adapted to be repeatedly releasable and attachable to said first circumferential segment. The gel outer ring is made of a gel sealing material commonly known for cable housings used in the technical field of telecommunication technology. This gel sealing material is a highly viscous liquid which can be regarded as a pseudo plastic or non-Newtonian fluid (cp. EP 0 426 658 B1 and EP 0 681 598 B1). In other words, the gel sealing material has the capability of being deformable to adopt as a negative pattern, the contours of the surfaces of the parts surrounding the gel sealing material, particularly of the upper and lower flanges and of a housing body accommodating the gel sealing device, provided for contacting the gel sealing material to perform sealing and for supporting axially and radially the gel outer ring and the gel inner ring. Furthermore, as the gel inner ring is also made of such a gel sealing material, the portion of the plurality of elongate parts, which are preferably constituted by a plurality of cables extending between the gel outer ring and the gel inner ring will be fully surrounded, i.e. encapsulated in its circumferential direction by the gel sealing material. Accordingly, the gel sealing material will flow and will be pressed towards the contact surfaces provided with the housing for the gel sealing material by exerting a predetermined pressure onto said gel sealing material, wherein a sealing is obtained therebetween. Said pressure can be preferably achieved by dimensioning the gel outer ring and/or gel inner ring larger than a space provided in the gel sealing device for supporting the gel outer and inner rings, respectively. Alternatively, or in addition thereto, the gel sealing device is preferably adapted to compress the gel outer and inner rings with respect to each other, preferably by moving at least the upper flange or the lower flange towards the other flange. 
     According to the present invention, the gel outer ring is comprised of at least two circumferential segments, in particular, of at least two separate circumferential segments, wherein at least two separate sealing sections are provided which are separately accessible from each other by detaching the at least one second circumferential segment from the first circumferential segment. Thus, a single elongate part or a plurality of elongate parts can be inserted into said exposed separate sealing section, wherein the other elongate part or a plurality of other elongate parts extending through the other sealing section is still covered by the first circumferential segment and can stay untouched. In other words, the separate accessible sealing section can be handled by inserting, removing, replacing or the like an assigned elongate part or a plurality of assigned elongate parts without affecting the at least one remaining sealing section still covering the elongate part or parts extending therethrough. Hence, no particular attention is needed for the elongate parts provided through the sealing section not to be accessed. Furthermore, a faster installation of further elongate parts at different times can be obtained, since no time or thought is required for taking care of the elongate parts extending through the sealing section which is not accessed. Preferably, as the present invention finds preferably application in the field of telecommunication technology, an elongate part is constituted by a commonly known cable protecting a signal transmitting element such as an optical fibre element or a metal wire element as described above. 
     Preferably, the gel sealing block of the gel sealing device has a wrap-around shape with the gel outer ring forming a part of a circumferential outer surface of the gel sealing device and provided to contact an inner circumferential surface of a receiving body forming a passage communicating with an opening through which the elongate parts extend. Further, the receiving body is adapted to receive the gel sealing device in its passage. The receiving body forms preferably a part of a housing which can be formed of a cable joint box or a boot for instance. These housing bodies are usually made by injection moulding of a plastic material. The housing (boot) preferably comprises a first housing (boot) part forming the cable organizing area and being preferably releasably connected to a second housing (boot) part which forms the receiving body for receiving the gel sealing device. The first housing (boot) part is denoted in the following “upper housing body”, whereas the second housing (boot) part is designated in the following “lower housing body”. The lower housing body is further preferably adapted to support the gel sealing device at least in longitudinal direction of the passage. The upper and lower housing bodies can be connectable to each other in the longitudinal direction of the passage, wherein a separation of the upper and lower housing bodies is preferably provided transversal to the longitudinal direction of the passage. In addition or alternatively thereto, the upper housing body and/or the lower housing body can be formed of two halves, wherein the separation of the halves is provided in parallel to the longitudinal direction of the passage as known. 
     The wrap-around shape of the gel sealing block can be a polygon shape or a round shape. In general, the wrap-around shape can be realized by any design having a continuous circumference. Furthermore, the outer circumferential surface of the gel outer ring does not necessarily need to contact the inner circumferential surface of the lower housing body in an assembled state of the housing. Notwithstanding, this configuration allows a simple structure of the gel sealing device, as a sealing between the inner circumferential part of the lower housing body and the outer circumference of the gel sealing device can be easily obtained by the gel outer ring. Alternatively, a configuration of the gel sealing device is conceivable which comprises a cover covering the outer circumferential surface of the gel outer ring, and a further seal for sealing an area between the inner circumference of the lower housing body and the outer circumference of the cover. 
     Concerning the directions and positions of upper, lower, axial, circumferential, inner, outer and radial as indicated for describing the invention, an upper and lower direction is to be understood as running parallel to an axial, i.e. longitudinal direction of the passage of the lower housing body through which the plurality of cables extend and which corresponds to a direction of extension of said cables, wherein the upper direction directs to an upper side of the lower housing body, which faces the upper housing body, and wherein the lower direction directs to the opposite side, that is, the lower side of the lower housing body. Further, in the sense of the present invention, a circumferential direction refers to the direction running around the longitudinal axis of the passage, whereas an inner direction and an inner side or a radial inner direction and a radial inner side relate to the direction running perpendicular to the longitudinal axis of the passage and directing towards said axis. The outer direction (radial outer direction) and outer side (radial outer side) direct to the opposed direction of the inner direction and inner side, respectively. This explanation shall not be understood as limiting the cross sectional shape of the gel sealing device to round configuration. Oval, triangular, rectangular or polygonal cross sections are also feasible. 
     According to a preferred embodiment of the present invention, the second circumferential segment is sandwiched in direction of extension of the elongate parts by an upper first ring segment and a lower first ring segment, wherein said upper and lower first ring segments have a rim covering in radial direction, at least, a part of an outer circumferential surface of the second circumferential segment, and wherein said upper and lower first ring segments are releasably securable to the upper and lower flanges, respectively. The preferred configuration allows a simple release and attachment of the second circumferential segment from and to the first circumferential segment, respectively. Further, by at least partially covering the outer circumference of the gel outer ring, a radial support can be simply provided without negatively affecting a seal performance between the gel sealing device and the lower housing body, since the gel outer ring further contacts the inner circumference of the lower housing body in an assembled state of the housing to seal the area between the gel sealing device and the lower housing body. 
     The releasable securing of the upper and lower first ring segments is preferably obtained by at least one detent which is provided with the upper and lower first ring segments at an opposite side of the rim, wherein said at least one detent grabs the upper and lower flange, respectively, from a circumferential side thereof. In other words, the detent is adapted to overlap an outer circumferential surface of the upper and lower flange, respectively, at least partially in axial direction of the gel sealing device, wherein a hook portion of the detent is received by a recess portion provided in the circumferential surface of the upper and lower flange, respectively. The hook portion of the detent is preferably provided at an axial end side of the detent, and the recess portion is arranged at a respective assigned outer upper edge of the circumferential surface of the upper flange and at an assigned outer lower edge of the circumferential surface of the lower flange. Further preferable, the recess portion of the upper and lower flange, respectively, is adapted to completely embed the detent at least in axial or radial direction of the gel sealing device. Accordingly, the recess portion of the upper and lower flange, respectively, has a shape corresponding to a shape of the detent, wherein the detent received in the recess portion forms with the upper and lower flange, respectively, a common outer surface without ridges at the position of the detent. The second circumferential segment sandwiched by the upper and lower first ring segments can be simply clipped from the radially outer side to the outer circumference of the gel sealing device, particularly to the upper and lower flanges, respectively. Preferably, the upper and lower first ring segments have an identical shape. This configuration is particularly preferred when said second circumferential segment and the upper and lower first ring segments are adapted to cover the main cable which extends through the sealing section. More preferably, said second circumferential segment sandwiched by the upper and lower first ring segments are adapted to only cover at least one looped main cable which forms an incoming cable extending to the upper side of the lower housing body and an outgoing cable extending to the lower side of the lower housing body, wherein said incoming cable and said outgoing cable are preferably arranged directly adjacently in the sealing section. Alternatively, the incoming cable and the outgoing cable of said main cable can be provided circumferentially spaced apart, wherein at least two second circumferential segments are provided, one for covering the incoming cable and the other one for covering the outgoing cable, and wherein, preferably, each of said second circumferential segments is sandwiched by an upper and lower first ring segment as described above. 
     In a further preferred embodiment, the engaging part formed at the upper and lower first ring segments is preferably a receiving hole which is formed near or at the edges of the circumferential end sides of the upper and lower first ring segments, respectively, wherein said receiving hole is adapted to receive the hinge which is formed by a pin protruding from the upper and lower flanges towards the upper and lower first ring segments, respectively. In particular, said pin forming the hinge, protrudes from the upper flange in axial direction towards the lower side and the pin formed with the lower flange protrudes, in axial direction towards the upper side. The pin receiving hole is provided at an assigned position of the upper and lower first ring segments in order to receive the pin and, preferably, to allow the rotational move of the upper and lower first ring segments and of the second circumferential segment sandwiched therebetween. Said pin and the receiving hole are preferably cross-sectionally round shaped. Notwithstanding, said pin and the assigned receiving hole can also have further shapes for securing the upper and lower first ring segments to the upper and lower flanges, respectively, from the axial or radial side without a rotating capability thereof. 
     According to another preferred embodiment, the first circumferential segment is sandwiched in the extension direction by an upper second ring segment and a lower second ring segment, wherein said upper and lower second ring segments have a rim covering in the radial direction at least part of an outer circumferential surface of the first circumferential segment, and wherein said upper and lower second ring segments are secured to the upper and lower flanges, respectively. Said configuration corresponds substantially to the above-described configuration of the rim provided with the upper and lower first ring segments, wherein similar effects can be achieved. More preferable, the upper first ring segment and the upper second ring segment form a continuous upper ring, and the lower first ring segment and the lower second ring segment form a continuous lower ring. The continuous rims formed thereby cover the circumferential outer surface of the gel outer ring at its axial end sides, wherein a radially support of the gel outer ring can be further improved. 
     In a further preferred embodiment, at least, the upper ring and the upper flange or the lower ring and the lower flange comprise an alignment means for determining in circumferential direction of the flanges, a predetermined position of the upper ring and the lower ring with the gel outer ring sandwiched therebetween with respect to the upper and lower flanges. The alignment means provides an indication for a correct placement of the upper ring with respect to the upper flange and/or of the lower ring with respect to the lower flange, for simplifying the assembling procedure e.g. after the gel sealing device has been disassembled for inserting further cables. In the sense of the present invention, correct placement refers to positioning repeatedly in an identical manner, the upper ring with respect to the upper flange and/or the lower ring with respect to the lower flange. The assembling time can thereby be decreased, as a trial and error for discovering a correct position of the upper ring with respect to the upper flange and/or of the lower ring with respect to the lower flange can be avoided. 
     Preferably, the alignment means comprises a protrusion provided at an inner circumferential surface of at least the upper second ring segment or the lower ring segment and projecting therefrom to a radially inner side, and a protrusion receiving section provided with the upper flange or the lower flange, respectively, for receiving said protrusion. More preferably, said protrusion receiving section is adapted to receive the protrusion at least from the radially outer side or from the axial direction. Further preferable, the alignment means is formed of latching means to releasably secure the upper ring to the upper flange and/or the lower ring to the lower flange. Hence, a correct alignment and a securing of the upper ring and of the lower ring, respectively, can be simply obtained. 
     In a further preferred embodiment, each of the upper second ring segment and the lower second ring segment comprises at least one hinge portion preferably arranged direct adjacently to the alignment means at circumferential sides thereof, wherein the hinge portion is adapted to allow a release and attachment of the part of the upper and lower second ring segments, which extends circumferentially from said hinge portion towards its circumferential end side, from and to the upper and lower flanges, respectively, in an engaged state of the latching means, i.e. in a securing state of at least the upper ring or the lower ring. According thereto, the part of the upper and lower second ring segment extending from the hinge portion to the circumferential end side can be hinged from the gel sealing device, wherein the hinge portion forms the axis of rotation. Preferably, the hinge portion is formed of a bend extending axially over the whole axial width of the upper and lower rings, respectively. Thus, the upper and lower second ring segments are undetachably secured to the upper and lower flanges, respectively, wherein the upper and lower second ring segments with the first circumferential segment sandwiched therebetween need not to be completely disassembled from the gel sealing device for accessing the sealing section. The installation time for installing further cables can be decreased. Moreover, the sealing section formed between the first circumferential segment of the gel outer ring and the gel inner ring is thereby divided in further sub-sealing sections separately accessible with respect to each other. For this preferred embodiment, each of the upper and lower second ring segments comprises preferably at each of their circumferential end sides, a ring securing element adapted to interact with a flange securing element assigned to said ring securing element and provided at a respective position at an axial end side of the upper and lower flange, respectively, to releasably secure said second ring segment parts. More preferably, the flange securing element is formed of a pin protruding from the axial end side of the flange toward the upper and lower rings, respectively, wherein the ring securing element is formed of a recess adapted to receive said pin and which is opened to the radially inner side and to the axial side directing to the respective flange. Thereby, the releasable part of the upper and lower second ring segments can be secured to the upper and lower flanges, respectively, from a radially outer side and are securable to the respective flanges at least in circumferential direction or axial direction. 
     According to a further preferred embodiment, the upper and lower second ring segments are made of an elastically material, such as rubber or the like, to be simply hingeable in radial direction to accessibly expose the sealing section, wherein said second ring segments can be attached to the upper and lower flanges, respectively, as described above. Accordingly, the second ring segments sandwiching the first circumferential segment can be completely or partially bent to a radial outer side of the gel sealing device, wherein a respective part of the sealing section is accessibly exposed. 
     In a further preferred embodiment, at least one second ring segment of the upper and lower rings with the first circumferential segment of the gel outer ring or at least one first ring segments of the upper and lower rings with the second circumferential segments forms a single unit. Particularly, the first circumferential segment and the second circumferential segment are fixed to their assigned ring segment of the upper and lower rings preferably by a co-injection molding process. More preferably, at least the first or second circumferential segment is fixed to both ring segments of the upper and lower rings, respectively, by said co-injection molding process to form a single unit comprised of the respective ring segments of the upper and lower rings with the assigned circumferential segment of the gel outer ring sandwiched therebetween. According thereto, the gel outer ring can be simply retained by the upper and lower ring segments, wherein an assembling and disassembling of the gel sealing device is further simplified. 
     In another preferred embodiment of the present invention, the upper flange and the lower flange have, at their circumferential outer surface, a plurality of passageways for guiding the elongate parts in their extension direction, wherein the passageways are opened to a radial outer side of the flanges. The plurality of cables can be inserted in the gel sealing device from its radially outer side. Moreover, the upper flange and the lower flange provide by its portions, which are arranged in circumferential direction between the passageways and, thereby, defining the passageways, respectively, an abutment surface as large as can be for the gel outer ring sandwiched by the upper ring and lower ring, as only the material to form the passageways in order to allow a guide of the elongate parts therethrough is removed from the flanges. Hence, the sandwiched gel outer ring can be reliably supported and retained in axial direction of the gel sealing device. 
     According to a further preferred embodiment, the upper flange and the lower flange are adapted to be movable towards each other to compress the sandwiched gel inner ring and gel outer ring. More preferably, the support section comprises two rings, one ring is fixed to the upper flange at the radial inner side and the other ring is fixed to the lower flange at the radial inner side, wherein one of the rings has a free end side with a diameter smaller than a diameter of an opposed free end side of the other ring and wherein the rings are movably fitted into each other in an assembled state of the support section. Said rings protrude in axial direction from the upper and lower flanges, respectively, wherein the outer circumference of said rings form the support section which supports the gel inner ring. In an alternative preferred embodiment, only one ring is provided either with the upper flange or the lower flange, wherein the remaining flange comprises a recess adapted to receive the free end side of said ring in order to allow an axial movement of the upper and lower flanges with respect to each other. In this configuration, the single ring forms the support section for the gel inner ring. 
     To facilitate the axial movement of the upper and lower flanges with respect to each other, the upper flange has preferably a tension member at a central portion, wherein said tension member extends in the extension direction through an opening provided in the lower flange to a lower side of the gel sealing device and wherein the protruding end of the tension member provides a hand-hold for manually moving the upper flange towards the lower flange. This moving can be obtained by pulling the tension member. 
     In an alternative preferred embodiment, the tension member is formed of two parts, wherein the first part is a rod extending from the central portion of the upper flange in axial direction of the passage through the opening provided in the lower flange to the lower side of the gel sealing device and wherein the free end side of said rod is received by a stick having the hand-hold. Preferably, the free end side of said rod comprises an external screw thread, wherein said stick has an internal screw thread screwed onto said external screw thread. Further, said stick comprises lateral extensions protruding to a radial outer side and abutting in axial direction against a lower side of the gel sealing device to provide a counter surface by which the upper flange having the rod, can be axially moved towards the lower flange when the stick is rotated in circumferential direction. 
     According to another preferred embodiment, the gel sealing device comprises an elongate parts alignment means attached to the lower flange at a side opposing the gel sealing block, wherein the elongate parts alignment means provides an abutment surface extending transversely to the extension direction and being adapted to abut against an abutment surface formed at an inner circumferential surface of a gel sealing device receiving body. Further, the cable alignment means provides at its outer circumferential surface, a plurality of channels aligned to guide the elongate parts towards the sealing section and adapted to receive, at least, a clamping means adapted to secure the elongate part in the assigned channel, at least, in the extension direction. The elongate parts extending through the sealing section can be easily aligned by inserting the respective elongate part from a radially outer side in the assigned channel which extends in elongation of the passageways in axial direction. For each elongate part, a separate channel is preferably provided. Accordingly, the elongate parts extending to the lower and upper sides of the gel sealing device receiving body are placed in circumferential direction of the gel sealing device, wherein for each elongate part, a separate channel and passageway is provided. 
     In a further preferred embodiment, the elongate parts alignment means has a recess portion at a circumferential outer surface of a wall side forming the channel. Further, the clamping means comprises a side protrusion adapted to be received by said recess portion in a clamping state of the clamping means. This allows an axial securing of the elongate parts received in the assigned channel, wherein the elongate parts can be simply aligned in axial direction of the gel sealing device. In particular, in a further preferred embodiment of the present invention, at least one of the elongate parts is formed of a tube guiding an optical fibre element or a metal wire element, wherein a tube end of the tube can be aligned at the upper side of the upper flange or in the sealing section provided between the gel outer ring and the gel inner ring by axial fixation of the tube on the elongate parts alignment means by means of the clamping means. 
    
    
     
       BRIEF DESCRIPTION OF THE DRAWINGS 
       The present invention will now be described in further detail by referring to a preferred embodiment depicted in the accompanying drawings. In these drawings: 
         FIGS. 1A-1C  show a perspective side view of a housing comprising a gel sealing device according to the embodiment in an assembled and disassembled state of the upper and lower housing bodies, 
         FIG. 2  shows an exploded perspective side view of the housing of  FIGS. 1A to 1C  without the upper and lower housing bodies, 
         FIG. 3A  shows a cross-sectional side view of the housing of  FIG. 1B  without the loop section holder, 
         FIG. 3B  shows an enlarged view of section IIIB of  FIG. 3A , 
         FIG. 4  shows a perspective side view of the gel sealing device of  FIG. 2 , 
         FIG. 5  shows a perspective side view of the gel sealing device of  FIG. 4  with disassembled second circumferential segment, 
         FIG. 6  shows a side view of the cable end tube alignment means, 
         FIG. 7  shows a perspective rear-side view of the cable and tube alignment means of  FIG. 6 , 
         FIG. 8  shows a perspective side view of a further housing comprising the gel sealing device according to the embodiment in an assembled, and 
         FIG. 9  shows an exploded perspective side view of the housing of  FIG. 8 . 
     
    
    
     DETAILED DESCRIPTION 
     For the following description of the housing  1 , it is to be understood that an upper direction is directed to the side of the lower housing body  3  to which the upper housing body  2  is connected, whereas a lower direction refers to the opposed side thereof. An inner direction relates to the direction pointing to the central axis of the tubular-shaped lower housing body  3 , whereas an outer direction corresponds to a direction from the central axis of the lower housing body  3  up to its radial outer side. A circumferential direction refers to a direction running in parallel with the circumference about the central axis of the lower housing body  3 . An axial direction refers to the direction running parallel with the middle axis of the lower housing body  3 . 
       FIGS. 1A to 1C  show a perspective side view of the housing  1  comprising the lower housing body  3  of a tubular shape forming a passage for guiding the main cable  13  and a plurality of cables guided by a plurality of tubes  14  from the lower side to an upper side of the lower housing body  3 . The upper side of the lower housing body  3  closed by the upper housing body  2  in the assembled state of the housing  1  defines a cable organizing area in which the plurality of cables, i.e. the main cable  13  and the plurality of cables guided by the tubes  14  are handleable. Said organizing area has a loop section holder  4  attached to a fixation member holder  18 . As can be seen from  FIG. 1C  and particularly from  FIG. 2 , the housing  1  comprises a gel sealing device which is received and held in the passage of the lower housing body  3 , wherein the fixation member holder  18  and the loop section holder  4  are arranged on the upper side of the gel sealing block  5 . The loop section holder  4  provides a base for at least one loop section (not shown) to be attached to said loop section holder  4 . The loop section is adapted to store an overlength of the assigned cable. The fixation member holder  18  has a disc-like shaped fixation member holder base  18   a  having a receiving portion  18   f  provided at the central portion for allowing attachment of the loop section holder  4  to the fixation member holder  18 . The receiving portion  18   f  is formed of a protrusion extending in axial direction to the upper side and having a receiving hole adapted to receive a pin-like part of the loop section holder  4  provided at its lower end and having a polygon shape. The receiving hole of the receiving portion  18   f  has a corresponding shape at its inner circumferential side. Thereby, a rotational move of the loop section holder  4  in an assembled state with respect to the fixation member holder  18  is prevented. 
     As shown in  FIG. 2 , the fixation member holder  18  comprises a plurality of bar-shaped protrusions  18   b  extending in axial direction towards the upper side. Thereby, the fixation member holder  18  adopts a crown shape. Each bar-shaped protrusion  18   b  is adapted to hold a fixation member  19  which can be attached to an end side of a cable guided by the tube  14 . In particular, said bar-shaped protrusion  18   b  comprises in axial direction two openings which communicate with an outside of the bar-shaped protrusion  18   b  by a recess extending from the opening to the circumferential edge of the bar-shaped protrusion  18   b . The fixation members  19  have two pins adapted to be received by the openings of the bar-shaped protrusion  18   b  wherein said pins have at its free end side, a swelling part with an outer width larger than the middle section of the pin extending from the fixation member holder base  18   a  to the swelling part. The middle section of the fixation member  19  has an outer width being equal or smaller than the recess directing to the opening of the bar-shaped protrusion  18   b . The fixation member  19  is inserted from the side of the bar-shaped protrusion  18   b , i.e. the fixation member  19  is inserted into the openings of the bar-shaped protrusion  18   b  from the circumferential side. Thereby, the fixation member  19  is axially and radially fixed with respect to the fixation member holder  18 . 
     On a radially inner side of the bar-shaped protrusion  18   b , a reinforcing member  18   g  is provided which fixes the bar-shaped protrusion  18   b  to the upper surface side of the fixation member holder base  18   a . Moreover, the fixation member holder  18  comprises a plurality elongations  18   c  extending between the bar-shaped protrusions  18   b  to the radial outer side, wherein the plurality of elongations  18   c  forms an outer circumference having a diameter larger than a diameter of the gel sealing device and smaller than an inner diameter of the lower housing body  3 . The sections between the pluralities of elongations  18   c  form an inner circumference with a diameter smaller than the diameter of the gel sealing device. The plurality of elongations  18   c  is supported by an upper section of the lower housing body  3 . In particular, the lower housing body  3  comprises in axial direction, a lower section and the upper section, wherein the upper section has an inner diameter larger than the lower section. Thereby, a step forming an abutment surface extending in radial direction of the lower housing body  3  is formed at the change-over between the upper section and the lower section of the lower housing body  3 . The upper section of the lower housing body  3  comprises at its inner circumferential surface, a plurality of protrusions projecting radially from the inner circumferential surface by a length being equal to or smaller than a radial length of the abutment surface formed by the step. The plurality of protrusions projects further in axial direction at least until the upper edge of the upper section. The plurality of protrusions are arranged in such a manner that a plurality of recesses is formed therebetween which are adapted to axially receive the plurality of elongations  18   c  provided with the fixation member holder  18  from the upper side of the lower housing body  3 . In an assembled state of the fixation member holder  18  within the lower housing body  3 , a twist of the fixation member holder  18  with respect to the lower housing body  3  can be prevented thereby. 
     As it is evident from  FIGS. 1A to 3B , the gel sealing device retained in the passage of the lower housing body  3  protrudes from the lower side of the lower housing body  3  by a predetermined length. As shown in  FIG. 2 , the gel sealing block  5  comprises an upper flange  11  and a lower flange  12  with a support section  11   a ,  12   a  disposed therebetween, wherein the upper and lower flanges  11 ,  12  sandwich in axial direction, a gel inner ring  7  and a gel outer ring  6 ,  10   a  covering the gel inner ring  7  in radial direction, wherein the gel inner ring  7  and the gel outer ring  6 ,  10   a  forms a sealing section therebetween. The gel sealing device further comprises at the lower side of the lower flange  12 , a cable and tube alignment and supporting means  15  for guiding and holding the main cable  13  and the plurality of tubes  14  extending from the lower side of the lower housing body  3 . 
     As can be seen from  FIGS. 2 to 3A , the upper flange  11  is disc-shaped and has at its outer circumference, a plurality of recesses providing a plurality of passageways  23  extending in axial direction. The upper flange  11  comprises at its lower side, a cylindrical round-shaped protrusion  11   a  having an outer diameter smaller than an inner diameter defined by the bottoms of the plurality of passageways  23 . The round-shaped protrusion  11   a  projects from the lower side of the upper flange  11  toward the lower flange  12 . The outer circumferential surface of the round-shaped protrusion  11   a  provides a first portion of the support section  11   a ,  12   a ,  12   b  formed between the upper and lower flanges  11 ,  12 . The upper flange  11  comprises at its lower side, i.e. the side surrounded by the outer circumferential surface of the round-shaped protrusion  11   a , a ring-shaped recess  41  and in the centre axis, a pin-like member  17   a  extending from the lower side of the upper flange  11  towards the lower flange  12  and towards the cable and tube alignment and supporting means  15 . The ring-shaped recess  41  is adapted to receive a free-end side of a ring-shaped protrusion  12   b  provided with the lower flange  12 . The recess  41  and the pin-like member  17   a  both extend in axial direction. 
     The lower flange  12  is disc-shaped and comprises a plurality of recesses at its outer circumference, forming a plurality of passageways  23  extending in axial direction. The lower flange  12  has at its upper side, a step formed round-shaped protrusion  12   a ,  12   b  projecting from the upper side of the lower flange  12  in axial direction. An outer diameter of the step formed round-shaped protrusion  12   a ,  12   b  is smaller than an inner diameter defined by the bottoms of the plurality of the passageways  23  formed in the outer circumference of the lower flange  12 . The step formed round-shaped protrusions  12   a ,  12   b  has a first section  12   a  fixed to the upper side of the lower flange  12  and having an outer diameter larger than an outer diameter of the second section  12   b  projecting from an upper side of the first section  12   a . The second section  12   b  is ring-shaped and is adapted to be received by the ring-shaped recess  41  provided with the upper flange  11 . The outer circumferential surfaces of the step formed round shaped protrusions  12   a ,  12   b  form the remaining part of the support section  11   a ,  12   a ,  12   b  disposed between the upper flange  11  and the lower flange  12 . 
     The lower flange  12  further comprises an opening at its central portion which guides therethrough the pin-like member  17   a  formed with the upper flange  11 . The lower flange  12  comprises on its upper side in the area between the ring-shaped, second section  12   b , several pin-like protrusions  42  projecting from the other side of the lower flange  12  in axial direction. Said pin-like protrusions  42  cooperate with thereto associated recesses formed in the lower side of the upper flange  11  in a radial inner area defined by the ring-shaped recess  41 . In particular, the pin-like protrusions  42  are received by the corresponding recesses provided with the upper flange  11  in an assembled state of the gel sealing block  5 , whereby said recesses and the pin-like protrusions  42  form a twist-preventing means preventing a twist of the upper flange  11  with respect to the lower flange  12  in said assembled state. Further, the lower flange  12  and the upper flange  11  are movable with respect to each other, wherein the ring-shaped second section  12   b  is fitted into the ring-shaped recess  41  of the upper flange  11 . 
     The upper flange  11  and the lower flange  12  have each at their opposing sides, in axial elongation of the passageways  23 , protruding lips  24 ,  28  for guiding and aligning the cable and tube into and out of the sealing section  22  formed between the gel inner ring  7  and the gel outer ring  6 ,  10   a . As said lips  24 ,  28  are substantially identically shaped, the lips  24  provided with the lower flange  12  will be described in detail in the following, wherein the described configuration of said lips  24  also applies basically in a corresponding manner to the lips  28  formed with the upper flange  11 . 
     As shown in  FIGS. 2 to 3B , the lower flange  12  comprises directly adjacent to the passageway  23  in axial elongation thereof, at its upper side, the conical half-shell shaped lips  24  having a large diameter lower side fixed to the lower flange  12  and a small diameter upper side denoting a free-end side. The opening diameter of said small diameter upper side corresponds to an outer diameter of the tube  14  guided by said lip  24 . The conical half-shell shaped lip  28  formed with the upper flange  11  has a small diameter lower side with an opening diameter corresponding to an outer diameter of the cable guided through the tube  14 , which ends in the sealing section  22 . Further, the lower flange  12  provides on a radial inner side of the conical half-shell shaped lip  24 , a recess for receiving the gel sealing material of the gel inner ring  7  in an assembled state of the gel sealing block  5 . Thereby, the conical half-shell shaped lip  24  is surrounded by the gel sealing material of the gel inner ring  7  at last in the assembled state of the gel sealing block  5 , wherein the gel inner ring  7  forms at its axial end side sealing lips. The lower flange  12  further provides between adjacent conical half-shell shaped lips  24 , a support surface for radially supporting a lower ring  9 ,  10   c . In other words, the lower flange  12  comprises in axial elongation of the wall sections defining the passageway  23 , an axial protrusion forming a radial support surface which extends from a radial surface of said wall sections to the upper side. The surface formed by the wall sections on the upper side of the lower flange  11  and extending to the radial outer side forms an axial support surface for the lower ring  9 ,  10   c . Thus, the lower ring  9 ,  10   c  is supported by the lower flange  12  in axial and radial direction by the aforesaid support surfaces provided at the upper side of the wall sections defining the passageways  23 . Furthermore, the lower flange  12  supports a lower axial end side of the gel inner ring  7  by the recesses formed in radial inner direction of the conical half-shell shaped lips  24 , the large diameter side thereof are fixed to the wall sections defining the passageways  23 . Whereas the axial lower end side of the gel outer ring  6 ,  10   a , is supported by the lower ring  9 ,  10   c.    
     As it is evident from  FIGS. 2, 4 and 5 , the gel inner ring  7  is formed of at least one ring extending continuously in circumferential direction and being supported by the support section  11   a ,  12   a ,  12   b  formed by the upper flange  11  and the lower flange  12 , respectively. Whereas the gel outer ring  6 , the lower ring  9 ,  10   c  and the upper ring  8 ,  10   b  are each comprised of two circumferential segments. In particular, the gel outer ring  6 ,  10   a  comprises a first circumferential segment  6  and a second circumferential segment  10   a , which form in an assembled manner, the continuous gel outer ring  6 ,  10   a . The first circumferential segment  6  is adapted to form with the gel inner ring  7 , a sealing section  22  for the tube end of the plurality of tubes  14  guided by the passageway  23  and protruding lips  24  into the sealing section  22 . The gel inner ring  7  and the first circumferential segment  6  of the gel outer ring  6 ,  10   a  form for each tube end in the sealing section  22  a termination  49  against which the axial end side of tube  14  abuts in its assembled state ( FIGS. 2 and 3B ). Particularly, each of the gel inner ring  7  and the first circumferential segment  6  provides a groove ranging from the lower flange  12  side into the sealing section  22 , wherein the grooves of the gel inner ring  7  are aligned with thereto assigned grooves provided with the first circumferential segment  6 . Respective assigned grooves form in an assembled state of the gel sealing device the termination  49  at their end side in the sealing section  22 , wherein each groove is adapted to partially surround the received tube end, and wherein the termination  49  provides a central opening to guide there through the signal transmitting element protruding from the tube end at the termination  49  towards the upper flange  11 . 
     The second circumferential segment  10   a  is adapted to form with the gel inner ring  7 , a sealing section  22  at a position where the main cable  13  extends there through from the lower side to the upper side of the lower housing body  3 . In compliance with the segmental configuration of the gel outer ring  6 ,  10   a , the lower ring  9 ,  10   c  and the upper ring  8 ,  10   b  comprises each a first ring segment  10   b ,  10   c  and a second ring segment  8 ,  9 , respectively. The first ring segment  10   b ,  10   c  and the second ring segment  8 ,  9  form in an assembled manner, the continuous upper ring  8 ,  10   b  and the continuous lower ring  9 ,  10   c , respectively. Each of the upper ring  8 ,  10   b  and the lower ring  9 ,  10   c , has on its inner circumferential side, a protruding lip pattern which corresponds in shape and configuration to the protruding lips  24 ,  28  provided with the upper flange  11  and the lower flange  12 , respectively. Accordingly, the conical half-shell shaped lips  28  of the upper flange  11  and the upper ring  8 ,  10   b  and the lower flange  12  and the lower ring  9 ,  10   c , respectively, form a conical channel with a free end side having an opening diameter adapted to guide therethrough, the main cable  13 , the tube  14  and the cable guided through the tube  14 , respectively ( FIG. 3B ). 
     The lower ring  9 ,  10   c  and the upper ring  8 ,  10   b , further comprises a rim  26  extending at its outer circumference in axial direction towards the gel outer ring  6 ,  10   a  for covering and thereby radially supporting an outer circumferential surface of the axial upper and lower ends of the gel outer ring  6 ,  10   a . Each of the upper and lower ring segments  8 ,  10   b ;  9 ,  10   c  is secured to the upper flange  11  and the lower flange  12 , respectively. In particular, the upper and lower second ring segments  8 ,  9  comprises fixation and alignment means  37 ,  38 , which are provided at circumferential end sections and at the circumferential middle section of the upper and lower second ring segment  8 ,  9 , respectively. The fixation and alignment means  38  in the middle circumferential section constitutes a latching means comprised of a detent and latch, wherein the latch is formed with the upper and lower flange  11 ,  12 , respectively and wherein the detent is formed with the upper and lower second ring segment  8 ,  9 , respectively. Adjacent to the detent at both circumferential sides thereof, a hinge portion  36  made of a bend extending axially is provided for allowing a releasing of the part of the second ring segment  8 ,  9  extending from the hinge portion  36  to the circumferential end side from the gel sealing device in a secured state of the detent, i.e. of the second ring segment  8 ,  9 . 
     The fixation and alignment means provided at each circumferential end side of the upper and lower second ring segments  8 ,  9 , respectively, is comprised of a pin receiving hole which receives a pin  37  formed at the sides of the upper and lower flanges  11 ,  12  which opposes the upper and lower second ring segment  8 ,  9 , respectively, and which is formed in axial elongation of the abutment surface of the wall sections defining the passageways  23 . Thereby, the upper and lower second ring segments  8 ,  9  are securable to the upper and lower flanges  11 ,  12 , respectively, by assembling the fixation and alignment means in axial direction. 
     Furthermore, the upper first ring segment  10   b  and the lower first ring segment  10   c  have an identical shape. Accordingly, in the following, the upper first ring segment  10   b  will be described in detail, wherein the described configuration of said upper first ring segment  10   b , also applies to the lower first ring segment  10   c . As shown in  FIG. 5 , the upper first ring segment  10   b  has a circumferential length corresponding to a circumferential length of the second circumferential segment  10   a  of the gel outer ring  6 ,  10   a . Thus, the upper first ring segment  10   b , the second circumferential segment  10   a  and the lower first ring segment  10   c  form in an assembled manner one part with common circumferential end sides extending in axial direction. The upper first ring segment  10   b  comprises at its radial inner side, two conical half-shell shaped lips which cooperate with the conical half-shell shaped lips  24  formed with the upper flange  11  to form a conical shaped cable channel for the main cable  13 . The upper first ring segment  10   b  comprises further a rim section  26  covering radially, the upper axial end side of the second circumferential segment  10   a . Moreover, the first ring segment  10   b  has two axial protrusions  35  at its upper side opposing the rim section  26 , wherein said two axial protrusions  35  are disposed at the circumferential end sides of the upper first ring segment  10   b , respectively, as an axial elongation of said circumferential end sides. Said two axial protrusions  35  form a detent with a hook portion at its free end side which grabs the upper flange  11  from its circumferential side. The upper flange  11  provides at its outer circumference a groove extending in axial direction of the gel sealing device for receiving the detent in an embedded state ( FIG. 6 ). The groove ends at the upper side of the upper flange  11  in a recess portion receiving the hook portion of the detent, wherein the detent ends at latest in a surface plane formed by the upper surface of the upper flange  11 . Accordingly, said two axial protrusions  35  have an axial length equal to or smaller than a thickness of the wall section defining the passageway  23  in axial direction. The lower first ring segment  10   b , further comprises radially inside with respect to said two axial protrusions  35  at or near the edges of circumferential end sides, a receiving hole  39  adapted to receive a pin  37  formed with the upper flange  11  in a manner corresponding to the pin  37  of the fixation and alignment means described with respect to the upper second ring segment  8 . In particular, the pin  37  for securing the upper second ring segment  8  and the upper first ring segment  10   b  are formed adjacently and protruding from an identical wall section in axial direction ( FIG. 5 ). 
     As shown in  FIG. 6 , the lower ring segment  9  comprises on its outer circumferential surface, in the region at the circumferential end sides, a groove  43  which cooperates with a detent  44 , extending at a corresponding position from the lower flange  12  in axial direction. Said detent  44  is formed on the circumferential outer surface of the wall section defining the passageway  23  for the main cable  13 , wherein said detent  44  is cross-shaped with a first part extending in axial direction forming the detent engaging the groove  43  and with a second part extending perpendicular to the aforesaid first part in axial direction and being fixed to the upper circumferential surface of the lower flange  12  for forming a pivot axis about which the detent  44  can be tilted to loosen the fixation of the lower second ring segment  9  to said detent  44 . 
     As further shown in  FIG. 2 , the gel sealing device comprises a cable and tube alignment and supporting means  15  attached to the lower side of the lower flange  12 . The lower flange  12  comprises latching means  45  axial protruding from the lower side of the lower flange  12  and being received by a recess  46  provided on the upper side of the cable and tube alignment and supporting means  15 . The cable and tube alignment and supporting means  15  has a flat upper surface extending in radial direction and provided to abut against the lower surface of the lower flange  12 . As can be seen from  FIG. 3A , the cable and tube alignment and supporting means  15  has a central opening through which the pin-like member  17   a  of the upper flange  11  extends towards the lower side. Said pin-like member  17   a  is received by a rod  17  extending with one end, in axial direction through said central opening of the cable and tube alignment and supporting means  15  and hence, in the opening provided at the lower side of the lower flange  12 . The rod  17  is adapted to retain the pin-like member  17   a  in order to move the upper flange  11  in axial direction. Particularly, the pin-like member  17   a  has a male screw thread at the free end side received by the rod  17 , which has a female screw thread engaging said male screw thread. Thus, by rotational movement of the rod  17  in one circumferential direction, the upper flange  11  is moved towards the lower flange  12 . By rotating the rod  17  in the opposite direction, the upper flange  11  is moved towards the upper side, i.e. in a direction opposing the lower flange  12 . The rod  17  comprises at its free end side a hand-hold formed by two opposing wings and an opening extending in a direction transverse to the axial direction. Through said transverse opening, a further rod can be inserted to form a level by which an increased rotational force can be applied to reliable compress the gel inner ring  7  and the gel outer ring  6 ,  10   a . Moreover, the rod  17  has in a region near the end which receives the pin-like member  17   a , counter-pressure parts  17   b  abutting against a lower circumferential surface side of a protrusion extending from the lower side of the cable and tube alignment and supporting means  15  and surrounding the opening through which the pin-like member  17   a  received by the rod  17  extends. Said counter-pressure parts  17   b  are formed of short bar-shaped protrusions extending in radial direction from the rod  17  in opposing directions. Said bar-shaped protrusions  17   b  have a radial length larger than an inner diameter of the protrusion  46  extending from the lower side of the cable and tube alignment and supporting means  15 . Said bar-shaped protrusions  17   b  abutting against said ring-shaped protrusion  47  in an assembled state of the gel sealing block  5  provides a counterpart to the axial pressured applied by the gel inner ring  7  and the gel outer ring  6 ,  10   a  in the compressed state to prevent a loosening of said compressed state. 
     The cable and tube alignment and supporting means  15  comprises at its outer circumferential surface, a plurality of cable and tube retaining channels  27   a ,  27   b , each extending in axial direction in elongation of the passageway  23  formed with the lower flange  12 . The configuration of the cable and tube retaining channels  27   a ,  27   b  will be described below with respect to  FIGS. 6 and 7 . 
     As is further evident from  FIG. 3A , the cable and tube alignment and supporting means  15  comprises a flange portion  15   a  at its upper side for abutting against a flange  3   a  formed with the lower housing body  3  at its lower side. In particular, the upper side of the cable and tube alignment and supporting means  15  has an outer diameter corresponding substantially to the inner diameter of the lower section of the lower housing body  3 , whereas the circumferential surface of the cable and tube alignment and supporting means  15  extending from said flange  15   a  to the lower side has an outer diameter being equal or smaller than an inner diameter formed by the lower flange  3   a  of the lower housing body  3 . Accordingly, the gel sealing block  5  is supported by the lower housing body  3  in axial direction by the flange  3   a  formed at the lower side of the lower housing body  3 . The outer diameter of the gel sealing device is equal or smaller than the inner diameter of the lower section of the lower housing body  3  without the flange  3   a . Thus, the gel sealing block  5  is axially inserted into said lower housing body  3  from its upper side. 
       FIGS. 6 and 7  show a side view and a perspective rear side view of the cable and tube alignment and supporting means  15  attached to the lower housing body  3  by means of the flange  15   a  formed on the upper end of the cable and tube alignment and supporting means  15  and supporting the lower side of the lower flange  12 . The cable and tube channels  27   a ,  27   b  extending in axial direction in elongation of the passageways  23  comprises a cable guiding channel  27   b  for guiding the main cable  13  in axial direction and a tube guiding channel  27   a  for guiding the tubes  14  in axial direction. The cable guiding channel  27   b  has recesses for fixing the main cable  13  to the cable and tube alignment and supporting means  15  by means of cable strap. The tube guiding channel  27   a  has in axial direction an upper section, a middle section and a lower section wherein the upper section is arranged adjacent to the lower flange  12  and wherein the lower section is provided at the lower side of the cable and tube alignment and supporting means  15 . The middle section has in circumferential direction, a width smaller than the upper and lower sections. Thereby, a change-over formed between the middle section and the upper and lower sections, respectively, provides an abutment surface  29  extending in circumferential direction. Said abutment surface  29  comprises a recess portion  40  extending in axial direction ( FIG. 7 ). The tube guiding channels  27   a  and the cable guiding channels  27   b  are each separated by wall sections  48  extending in axial direction. An outer circumferential surface of said wall sections  48  forms the outer circumferential surface of the cable and tube alignment and supporting means  15 . The wall sections  48  comprise in an area of the upper and lower sections of the tube guiding channel  27   a  a recess  30  formed in circumferential direction over the circumferential width of said wall sections  48 , respectively. The surface sides of the wall sections  48  defining the tube guiding channel  27   a  have in the region of the upper and lower sections of the tube guiding channel  27   a  in an area of the axial end sides, a vertical recess portion  34 . Said vertical recess portion  34  provides at its outer side and at its axial end side, which is near the middle section of the tube guiding channel  27   a , counter-surfaces adapted to prevent an axial and radial displacement of an element abutting against said counter-surfaces, respectively. As particularly shown in  FIG. 7 , the tube guiding channel  27   a  has an undulated bottom surface formed of two wave crests extending in axial direction in compliance with the direction of extension of the tube guiding channel  27   a . The middle wave trough formed between the two wave crests is adapted to guide the tube  14  in axial direction and has a shape corresponding to the shape of the part of the tube  14  placed therein and guided thereby. 
       FIGS. 6 and 7  further show a tube clamp  16  of a sliding carriage shape. In particular, the tube clamp  16  has two cross-sectional U-shaped tube receiving sections with a middle recess section disposed there between. The middle recess section is formed by elongated journals of the U-shaped tube receiving sections, wherein the U-shaped tube receiving sections and the middle recess section provide at both circumferential sides of the tube clamp  16 , a common surface side. The middle recess section constituting a bridge section has two circumferential extending elastically lips each protruding from one circumferential side to the opposed circumferential side of the tube clamp  16 . One circumferential extending elastically lip is fixed to one circumferential side of the tube clamp  16 , wherein the other is fixed to the opposed side. The lips are adapted to expand to a radial outer side by mounting the tube clamp  16  onto the tube  14 . Thus, the tube  14  inserted into the tube guiding channel  27   a  is pressed by said circumferential extending lips onto the bottom surface of the tube guiding channel  27   a.    
     The tube clamp  16  has at one axial end side, two axial protrusions  32  protruding from the U-shaped receiving section in axial direction. Said axial protrusions  32  are adapted to be received by the recess  40  formed in the abutment surface  29  at the change-over between the middle section and the lower and upper sections of the tube guiding channel  27   a . At the opposed axial end side of the tube clamp  16 , a second recess portion is formed, which has two engaging pawls  33  extending from said recess portion in circumferential direction. Hence, said engaging pawls  33 , if viewed from a rear side of the tube clamp  16  (see  FIG. 7 ) extend from the elongated journals of the U-shaped tube receiving section. Said engaging pawls  33  are adapted to be received by the vertical recess portions  34  formed in the upper and lower sections of the tube guiding channel  27   a . The tube clamp  16  further comprises a circumferential side protrusion  31  which extends from the U-shaped tube receiving section to the circumferential outer side of the tube clamp  16 . Said circumferential side protrusion  31  is adapted to be received by the circumferential recess  30  formed on the outer circumferential surface side of the wall sections defining the tube guiding channels  27   a . In addition, the tube clamp  16  has in radial inner direction with respect to the axial protrusion  32 , a round-shaped edge between the front edge facing the abutment surface  29  and the radial inner edge on the bottom surface of the tube guiding channel  27   a . The round shaped edge allows a likable insertion of the tube clamp  16  into the tube guiding channel  27   a , wherein the axial protrusions  32  are first inserted into the assigned recesses  40  and then the engaging pawls  33  are clamped into the assigned vertical recesses  34 . 
     By inserting at least one tube clamp  16  into the tube guiding channel  27   a , the tube  14  is axially fixed at least in one axial direction by the abutment surface  29  cooperating with the front edge of the tube clamp  16  from which the axial protrusion  32  projects in combination with a cooperation of the vertical recess  34  receiving the engaging pawls  33 . By inserting two identical tube clamps  16  in said tube guiding channel  27   a  in an opposed manner as shown in  FIG. 6 , the tube  14  is axially fixed along opposing axial directions. Furthermore, an axial fixation of the tube  14  in said tube guiding channel  27   a , is further obtained by the cooperation of the circumferential side protrusion  31  received by the circumferential recess  30 . The radial fixation of said tube  14  is achieved by the axial protrusion  32  inserted into the recess  40  and by the engaging pawls  33  received by the vertical recess portions  34 . 
     Based on such fixation, the tube  14  can be reliably aligned and held with its tube end in the sealing section  22  provided between the gel inner ring  7  and the gel outer ring  6 ,  10   a  as shown in  FIGS. 3A and 3B . 
       FIGS. 8 and 9  show a further housing  100  receiving two gel sealing devices according to the preferred embodiment as described above. As a matter of course, the further housing  100  can be adapted to receive different gel sealing devices. Said further housing  100  comprises a tubular upper housing body  101  providing a common cable organizing area for the cables guided and sealed by the gel sealing devices, wherein said cable organizing area is provided between openings formed at the axial end sides of the upper housing body  101 . Each axial end side of the upper housing body  101  is connectable to a lower housing body  102  in a similar manner as described with respect to the upper housing body  2  and the lower housing body  3  of the above-described housing  1 . Particularly, the lower housing body  102  which receives the gel sealing device and the assigned end side of the upper housing body  101  are basically configured in a corresponding manner as the lower and upper housing bodies  3 ,  2  of the above housing  1 , wherein the gel sealing device is retained in each lower housing body  102  in axial direction thereof. 
     A method of inserting the main cable  13  and the tubes  14  in the housing  1  according to the above preferred embodiment of the present invention will now be described. In case the housing  1  is pre-assembled as shown in  FIG. 1A , the upper housing body  2  is removed from the lower housing body  3  which is then moved to the lower side to expose the gel sealing block  5 . The main cable  13  and the tubes  14  to be installed in the gel sealing block  5  are inserted through the passage of the lower housing body  3 . To facilitate the installation, the sealing section  22  provided between the gel inner ring  7  and the gel outer ring  6 ,  10   a  is accessibly exposed by a rotational movement of the rod  17  in one circumferential direction corresponding to the releasing direction, wherein the upper flange  11  moves to the upper side, i.e. away from the lower flange  12 , thereby decompressing the gel inner ring  7  with respect to the gel outer ring  6 ,  10   a . By said axial movement of the upper flange  11  away from the lower flange  12 , the fixation of the upper and lower first ring segments  10   b ,  10   c  with the second circumferential segment  10   a  sandwiched therebetween is released. Particularly, the pin receiving hole  39  and the pin  37  are separated from each other. Thus, the upper and lower first ring segments  10   b ,  10   c  with the second circumferential segment  10   a  can be removed from the gel sealing block  5 . Said release can be performed with or without releasing the upper and lower second ring segments  8 ,  9  sandwiching the first circumferential segment  6 . Then, the main cable  13  is inserted from the radial outer side of the gel sealing block  5  into the passageway  23  and the cable guiding channel  27   b  provided with the upper flange  11 , the lower flange  12  and the cable and tube alignment and supporting means  15 . If necessary, the main cable  13  can be looped in the organizing area and guided back through the gel sealing block  5  to an outside of the housing  1 . After insertion of the main cable  13  in the gel sealing block  5 , the upper and lower first ring segments  10   b ,  10   c  with the second circumferential segment  10   a  are mounted onto the gel sealing block  5  by inserting the pin  37  into the pin receiving hole  39  and by moving the upper and lower flanges  11 ,  12  towards each other. 
     The insertion of the tube  14  can be performed in parallel with the insertion of the main cable  13  or separately thereto. Alternatively, or in addition to the release of the second circumferential segment  10   a  for exposing the sealing section  22 , the upper and lower second ring segments  8 ,  9  with the first circumferential segment  6  sandwiched therebetween are hinged away from the gel sealing block  5  in a secured state of the upper and lower second ring segments  8 ,  9 . The tube  14  is inserted from the radial outer side onto the gel sealing block  5  in such a manner that the tube end is placed in the groove onto the gel inner ring  7  in the sealing section  22 . The tube end is aligned with respect to an inner end side of the groove forming with the assigned groove of the gel outer ring  6 ,  10   a  the termination  49 . Further, the tube  14  is inserted in the tube guiding channel  27   a  and fixed thereto by tube clamps  16 . In case the cable is not guided through the tube  14  toward the upper side of the gel sealing block  5 , a cable dummy  20  can be introduced into said tube end from the axial upper side, wherein an upper part of the cable dummy  20  is held by the fixation member holder  18 . Alternatively, the tube end can be closed by a tube end cap. In the event that a cable is guided through the tube  14  to the upper side of the gel sealing block  5 , the cable is spliced with an assigned cable guided by the main cable  13 , wherein the splicing is stored in the cable organizing area. If a splicing of the cable guided by the tube  14  should not be performed at this time of cable installation, the cable guided by the tube  14  can be fixed to a fixation member  19  which can be mounted on the fixation member holder  18 . Thereby, if a splicing of said cable with the main cable  13  shall be performed at a later date, the upper housing body  2  merely needs to be removed from the housing  1  to provide an access to the free end of the cable held by the fixation member holder  18 . 
     After performing the insertion of the cable  13  and/or the tube  14 , the sealing sections comprising the cable  13  and the tube  14  are sealed by assembling the respective circumferential segments  6 ,  10   a  to the gel sealing block  5 . The rod  17  is turned in circumferential direction corresponding to a mounting direction, wherein the upper flange  11  moves towards the lower flange  12 , for fixing the gel outer ring  6 ,  10   a  with the upper and lower rings  8 ,  10   b ;  9 ,  10   c . Prior or subsequent thereto, the gel sealing device is inserted into the passage of the lower housing body  3 . In case, the gel sealing device is inserted after rotating the rod  17 , the rod  17  is further rotated in the mounting direction for further compressing the gel inner ring  7  and gel outer ring  6 ,  10   a , such that the outer circumference of the gel outer ring  6 ,  10   a  is pressed against the inner circumference of the lower housing body  3  to obtain the sealing. Then, the fixation member holder  18  with the loop section holder  4  is installed on the upper section of the lower housing body  3  by rotationally aligning the fixation member holder  18  due to the elongated protrusions  18   c  formed with the fixation member holder  18  and the recesses provided at the inner circumferential side of the upper section of the lower housing body  3 . Then, the rod  17  can be further rotated in the mounting direction in case of need for further compressing the gel inner ring  7  and the gel outer ring  6 ,  10   a  thereby further pressing the gel sealing material in the radial outer direction towards the inner circumferential surface of the lower section of the lower housing body  3  for obtaining a reliable sealing. The upper housing body  2  is fixed to the lower housing body  3  at least after installing the loop section holder  4 .