1. A paper transporting felt which is at least one paper transporting felt of a pair of paper transporting felts, which are disposed in a press apparatus provided in a press part of a paper machine, form a press mechanism together with a press in the press apparatus, which are transported while sandwiching a wet paper and pressurized by the press, comprising:
a base layer;
a first batt layer which is formed on a wet paper side surface of the base layer;
a second batt layer which is formed on a press side surface of the base layer;
a polymer elastic material which is impregnated in the base layer, the first batt layer and the second batt layer; and
a wet paper contacting layer which is formed on a wet paper side surface of the first batt layer so as to come into direct contact with the wet paper, and which comprises a flexible resin material,
wherein a compressibility of the wet paper contacting layer is larger than a compressibility of a layer formed by the base layer, the first batt layer and the second batt layer.
2. The paper transporting felt according to claim 1,
wherein the flexible resin material includes a foaming resin or a hollow particulate resin.
3. The paper transporting felt according to claim 1,
wherein a difference between the compressibility of the wet paper contacting layer and the compressibility of the layer formed by the base layer, the first batt layer and the second batt layer is more than or equal to 5% under 10 kgcm2 pressure.
4. A press apparatus of a paper machine comprising the paper transporting felt according to claim 1.
5. A press apparatus of a paper machine comprising a plurality of press mechanisms each having the paper transporting felt according to claim 1,
wherein the plurality of press mechanisms are disposed in series along a transporting direction of the wet paper transported by the paper transporting felts.
6. The press apparatus of a paper machine according to claim 5,
wherein the paper transporting felt is provided in a press mechanism disposed on a downstream side in the transporting direction among the plurality of press mechanisms.
The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.
1. A connector arrangement, comprising
a first connector comprising a first outer connector, a first inner connector with a protruding element and first attaching means for attaching the first connector to a first object, the first connector being movable in relation to the first object in at least two different directions;
a second connector comprising a second outer connector, a second inner connector with a protruding element, and second attaching means for attaching the second connector to a second object;
a bullet connector comprising a bullet outer connector and bullet inner connector;
the bullet connector being attachable to the first and second connectors between the first and second connector, the bullet outer connector being configured to make a contact with the first and the second outer connector to form a first conductive signal path from the first outer connector to the second outer connector, the bullet inner connector comprising means for receiving the protruding elements of the first and second inner connectors to form a second conductive signal path from the first inner connector to the second inner connector.
2. The connector arrangement of claim 1, wherein the first and second attaching means are common to more than one first and second connector.
3. The connector arrangement of claim 1 or 2, further comprising shielding means attached to the outer surfaces of the first and second outer connectors forming the first conductive signal path.
4. The connector arrangement of claim 1, being couplable to locking means in the first and second object attaching the first and second objects together in order to form the first and second conductive signal paths.
5. The connector arrangement of claim 1, being couplable to guiding means in the first and second object for directing the first and second outer connectors together with the accuracy smaller than the movement allowed by the second attaching means.
6. The connector arrangement of claim 1, wherein the first attaching means comprise a spring loaded bed providing the movement of the first connector in at least two directions orthogonal with each other.
7. The connector arrangement of claim 1, wherein the first andor second inner connector comprises an integrated low pass filter in the same body as the protruding element.
8. The connector arrangement of claim 7, the first andor second inner connector comprising an insulator axially surrounding at least part of the inner connector.
9. The connector arrangement of claim 8, wherein the first andor second inner connector comprises one or more grooves on a surface facing radially outwards of the first andor second inner connector, the insulator of the first andor second inner connector being attached to the one or more grooves.
10. The connector arrangement of claim 9, wherein the insulator of the first andor second inner connector is injection moulded to the one or more grooves.
11. The connector arrangement of claim 1, wherein the first object is an antenna and the second object is a transceiver.
12. The connector arrangement of claim 1, wherein the first object is a power amplifier and the second object is a filter.
13. A connector arrangement, comprising
a first connector comprising a first outer connector, a first inner connector with a protruding element and first attaching means for attaching the first connector to a first object, the first connector being movable in relation to the first object in at least two different directions;
a bullet connector comprising a bullet outer connector and bullet inner connector;
the bullet connector being attachable from a first side to the first connector, the bullet outer connector being configured to make a contact with the first outer connector to form a first conductive signal path from the first outer connector to the bullet outer connector, the bullet inner connector comprising means for receiving the protruding element of the first inner connector to form a second conductive signal path from the first inner connector to the bullet inner connector,
the bullet connector being further attachable from a second side to another connector, the bullet outer connector being configured to make a contact with an outer connector of the another connector to extend the first conductive signal path from the first outer connector to the outer connector of the another connector, the bullet inner connector comprising means for receiving the protruding element of the inner connector of the another connector to extend the second conductive signal path from the first inner connector to inner connector of the another connector.
14. The connector arrangement of claim 13, the connector arrangement being couplable to locking means in the first object, the locking means being attachable to a second object to form the first and second conductive signal paths.
15. The connector arrangement of claim 13, wherein the first and inner connector comprises an integrated low pass filter in the same body as the protruding element.
16. The connector arrangement of claim 15, the first inner connector comprising an insulator axially surrounding at least part of the inner connector,
the first inner connector comprises one or more grooves on a surface facing radially outwards of the first second inner connector, wherein
the insulator of the first inner connector is attached to the one or more grooves.