Author: claimsbot

1. A wireless power transmission apparatus comprising:
a mounting member;
an upper transmission coil disposed on the mounting member; and
first and second terminals disposed in the mounting member,
wherein the upper transmission coil comprises:
an outer coil part connected to the first terminal and formed in one-turn with respect to a central axis between the first and second terminals;
a first inner coil part connected to the outer coil part and formed in a half-turn on a first side of the central axis;
a second inner coil part connected to the first inner coil part, formed in a half-turn on a second side of the central axis;
a third inner coil part connected to the second inner coil part, formed in a half-turn on the first side of the central axis; and
a fourth inner coil part connected to the third inner coil part and the second terminal, formed in a half-turn on the second side of the central axis.
2. The wireless power transmission apparatus of claim 1, wherein the upper transmission coil further comprises:
an outer connection part connecting the outer coil part and the first terminal; and
an inner connection part connecting the fourth inner coil part and the second terminal.
3. The wireless power transmission apparatus of claim 2, wherein the inner connection part is connected to the second terminal by passing a top surface and then a bottom surface of the mounting member through a connection.
4. The wireless power transmission apparatus of claim 2, wherein the upper transmission coil further comprises:
a first extension part connecting the outer coil part and the first inner coil part while intersecting the central axis;
a second extension part connecting the first inner coil part and the second inner coil part while intersecting the central axis;
a third extension part connecting the second inner coil part and the third inner coil part while extending in parallel to the central axis; and
a fourth extension part connecting the third inner coil part and the fourth inner coil part while intersecting the central axis.
5. The wireless power transmission apparatus of claim 1, wherein a width, in a direction of the central axis, of the outer coil part is about 180.5 mm, a width, in the direction of the central axis, of the first inner coil part is about 174.3 mm, a width, in the direction of the central axis, of the second inner coil part is about 140.3 mm, a width, in the direction of the central axis, of the third inner coil part is about 107.9 mm, and a width, in the direction of the central axis, of the fourth inner coil part is about 24.4 mm.
6. The wireless power transmission apparatus of claim 1, wherein a length of the mounting member is about 180.5 mm, a width of the mounting member is about 129.0 mm, and a thickness of the mounting member is about 0.80 mm.
7. The wireless power transmission apparatus of claim 1, further comprising:
a lower transmission coil disposed under the mounting member and connected to the first and second terminals,
wherein the lower transmission coil is horizontally symmetrical to the upper transmission coil with respect to the central axis.
8. The wireless power transmission apparatus of claim 1, wherein the second inner coil part has a shorter length than the first inner coil part, the third inner coil part has a shorter length than the second inner coil part, and the fourth inner coil part has a shorter length than the third inner coil part.
9. A wireless power transmission apparatus comprising:
a mounting member;
an upper transmission coil disposed on the mounting member; and
first and second terminals disposed in the mounting member,
wherein the upper transmission coil comprises:
an outer connection part extending from the first terminal in a first direction parallel to a central axis or a Y axis between the first and second terminals on a right side of the mounting member;
an outer coil part extending from the outer connection part and formed in one-turn to be horizontally symmetrical with respect to the mounting member;
a first extension part extending from the outer coil part while intersecting the Y axis in a direction from a left side to the right side of the mounting member;
a first inner coil part extending from the first extension part and formed in a half-turn on the right side of the mounting member;
a second extension part extending from the first inner coil part while intersecting the Y axis in a direction from the right side to the left side of the mounting member;
a second inner coil part extending from the second extension part and formed in a half-turn on the left side of the mounting member;
a third extension part extending from the second inner coil part in the first direction parallel to the Y axis on the right side of the mounting member;
a third inner coil part extending from the third extension part and formed in a half-turn on the right side of the mounting member;
a fourth extension part extending from the third inner coil part while intersecting the Y axis in the direction from the right side to the left side of the mounting member;
a fourth inner coil part extending from the fourth extension part and formed in a half-turn on the left side of the mounting member; and
an inner connection part extending in a second direction parallel to the Y axis on the left side of the mounting member.
10. The wireless power transmission apparatus of claim 9, wherein:
a top surface of the mounting member is divided into first, second, third and fourth quadrants by the Y axis and an X axis that is perpendicular to the Y axis;
wherein the outer coil part comprises:
first, second, third and fourth outer coil parts formed integrally and disposed in the first, second, third and fourth quadrants, respectively;
the first outer coil part extends from a terminated point of the outer connection part in a positive X axis direction in parallel to the X axis and then extends in a negative Y axis direction in parallel to the Y axis, wherein the first outer coil part changes its direction from the positive X axis direction to the negative Y axis direction with a first curvature;
the second outer coil part extends from a terminated point of the first outer coil part in the negative Y axis direction in parallel to the Y axis and then extends in a negative X axis direction in parallel to the X axis, wherein the second outer coil part changes its direction from the negative Y axis direction to the negative X axis direction with a second curvature;
the third outer coil part is symmetrical to the second outer coil part with respect to the Y axis; and
the fourth outer coil part is symmetrical to the first outer coil part with respect to the Y axis.
11. The wireless power transmission apparatus of claim 10, wherein the first curvature and the second curvature are identical.
12. The wireless power transmission apparatus of claim 11, wherein:
the first inner coil part comprises first and second inner coil parts formed integrally and disposed in the first and second quadrants, respectively;
the first inner coil part extends in the positive X axis direction in parallel to the X axis and then extends in the negative Y axis direction in parallel to the Y axis,
wherein the first inner coil part changes its direction from the positive X axis direction to the negative Y axis direction with a third curvature; and
the second inner coil part extends in the negative Y axis direction in parallel to the Y axis and then extends in the negative X axis direction in parallel to the X axis,
wherein the second inner coil part changes its direction from the negative Y axis direction to the negative X axis direction with a fourth curvature.
13. The wireless power transmission apparatus of claim 12, wherein the third curvature and the fourth curvature are identical.
14. The wireless power transmission apparatus of claim 13, wherein:
the second inner coil part comprises third and fourth inner coil parts formed integrally and disposed in the third and fourth quadrants, respectively;
the third inner coil part extends from a terminated point of the second extension part in the negative X axis direction in parallel to the X axis and then extends in the positive Y axis direction with a vertical distance thereof from the Y axis gradually increasing,
wherein the third inner coil part changes its direction from the negative X axis direction to the positive Y axis direction with a fifth curvature; and
the fourth inner coil part extends from a terminated point of the third inner coil part in the positive Y axis direction with a vertical distance thereof from the Y axis gradually decreasing and then extends in the positive X axis direction in parallel to the X axis,
wherein the fourth inner coil part changes its direction from the positive Y axis direction to the positive X axis direction with a sixth curvature.
15. The wireless power transmission apparatus of claim 14, wherein the fifth curvature and the sixth curvature are identical.
16. The wireless power transmission apparatus of claim 15, wherein:
the third inner coil part comprises fifth and sixth inner coil parts formed integrally and disposed in the first and second quadrants, respectively;
the fifth inner coil part extends in the positive X axis direction in parallel to the X axis and then extends in the negative Y axis direction with a vertical distance thereof from the Y axis gradually increasing,
wherein the fifth inner coil part changes its direction from the positive X axis direction to the negative Y axis direction with a seventh curvature; and
the sixth inner coil part extends in the negative Y axis direction with a vertical distance thereof from the Y axis gradually decreasing and then extends in the negative X axis direction in parallel to the X axis, wherein the sixth inner coil part changes its direction from the negative Y axis direction to the negative X axis direction with an eighth curvature.
17. The wireless power transmission apparatus of claim 16, wherein the seventh curvature and the eighth curvature are identical.
18. The wireless power transmission apparatus of claim 17, wherein:
the fourth inner coil part comprises seventh and eighth inner coil parts disposed in the third and fourth quadrants, respectively;
the seventh inner coil part extends in the negative X axis direction and then in the positive Y axis direction and has a ninth curvature as a whole; and
the eighth inner coil part extends in the positive Y axis direction and then in the positive X axis direction and has a tenth curvature as a whole.
19. The wireless power transmission apparatus of claim 18, wherein the ninth curvature and the tenth curvature are identical.
20. The wireless power transmission apparatus of claim 19, wherein a radius of the first and second curvatures is larger than a radius of the third and fourth curvatures, the radius of the third and fourth curvatures is larger than a radius of the fifth and sixth curvatures, the radius of the fifth and sixth curvatures is larger than a radius of the seventh and eighth curvatures, and the radius of the seventh and eighth curvatures is larger than a radius of the ninth and tenth curvatures.
21. The wireless power transmission apparatus of claim 20, further comprising:
a lower transmission coil disposed under the mounting member and connected to the first and second terminals,
wherein the lower transmission coil comprises:
an outer connection part symmetrical to the outer connection part of the upper transmission coil with respect to the Y axis;
a first extension part symmetrical to the first extension part of the upper transmission coil with respect to the Y axis;
a first inner coil part symmetrical to the first inner coil part of the upper transmission coil with respect to the Y axis;
a second extension part symmetrical to the second extension part of the upper transmission coil with respect to the Y axis;
a second inner coil part symmetrical to the second inner coil part of the upper transmission coil with respect to the Y axis;
a third extension part symmetrical to the third extension part of the upper transmission coil with respect to the Y axis;
a third inner coil part symmetrical to the third inner coil part of the upper transmission coil with respect to the Y axis;
a fourth extension part symmetrical to the fourth extension part of the upper transmission coil with respect to the Y axis;
a fourth inner coil part symmetrical to the fourth inner coil part of the upper transmission coil with respect to the Y axis; and
an inner connection part symmetrical to the inner connection part of the upper transmission coil with respect to the Y axis.
22. The wireless power transmission apparatus of claim 21, wherein a distance, in a direction of the X axis, between the inner connection part of the upper transmission coil and the inner connection part of the lower transmission coil is about 2.6 mm.
23. The wireless power transmission apparatus of claim 22, wherein a distance, in the direction of the X axis, between a starting point of the second extension part of the upper transmission coil and a starting point of the second extension part of the lower transmission coil is about 7.04 mm.
24. The wireless power transmission apparatus of claim 23, wherein a distance, in the direction of the X axis, between a terminated point of the second extension part of the upper transmission coil and a terminated point of the second extension part of the lower transmission coil is about 10.29 mm.

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. An anthracene derivative represented by a general formula (1):
wherein R1 represents hydrogen or an alkyl group having 1 to 4 carbon atoms;
wherein R2 represents any one of hydrogen, an alkyl group having 1 to 4 carbon atoms and an aryl group having 6 to 12 carbon atoms;
wherein R3 represents any one of hydrogen, an alkyl group having 1 to 4 carbon atoms, and an aryl group having 6 to 12 carbon atoms;
wherein Ph1 represents a phenyl group; and
wherein X1 represents an arylene group having 6 to 15 carbon atoms.
2. An anthracene derivative represented by a general formula (2):
wherein R4 represents hydrogen or an alkyl group having 1 to 4 carbon atoms;
wherein R5 and R6 represent hydrogen or aromatic rings which are bonded to each other;
wherein R7 and R8 represent hydrogen or aromatic rings which are bonded to each other;
wherein R9 represents any one of hydrogen, an alkyl group having 1 to 4 carbon atoms, and an aryl group having 6 to 12 carbon atoms;
wherein R10 represents any one of hydrogen, an alkyl group having 1 to 4 carbon atoms, and an aryl group having 6 to 12 carbon atoms; and
Ph2 represents a phenyl group.
3. An anthracene derivative represented by a general formula (3):
wherein R11 represents hydrogen or an alkyl group having 1 to 4 carbon atoms;
wherein R12 represents any one of hydrogen, an alkyl group having 1 to 4 carbon atoms, and an aryl group having 6 to 12 carbon atoms;
wherein R13 represents any one of hydrogen, an alkyl group having 1 to 4 carbon atoms, and an aryl group having 6 to 12 carbon atoms; and
wherein Ph3 represents a phenyl group.
4. An anthracene derivative represented by a general formula (4):
wherein R14 represents any one of hydrogen, an alkyl group having 1 to 4 carbon atoms, and an aryl group having 6 to 12 carbon atoms;
wherein R15 represents any one of hydrogen, an alkyl group having 1 to 4 carbon atoms, and an aryl group having 6 to 12 carbon atoms; and
wherein Ph4 represents a phenyl group.
5. An anthracene derivative represented by a general formula (5):
wherein R16 represents hydrogen or an alkyl group having 1 to 4 carbon atoms.
6. An anthracene derivative represented by a general formula (6):
wherein X2 represents an arylene group having 6 to 15 carbon atoms.
7. An anthracene derivative represented by a general formula (7):
wherein R17 represents any one of hydrogen, an alkyl group having 1 to 4 carbon atoms, and an aryl group having 6 to 12 carbon atoms.
8. An anthracene derivative represented by a general formula (8):
wherein R18 represents any one of hydrogen, an alkyl group having 1 to 4 carbon atoms, and an aryl group having 6 to 12 carbon atoms.
9. A light emitting element comprising:
a layer containing the anthracene derivative according to any one of claims 1 to 8 between electrodes.
10. A light emitting device comprising:
a light emitting element comprising the anthracene derivative according to any one of claims 1 to claim 8 as a light emitting substance.
11. A light emitting device comprising:
a light emitting element containing the anthracene derivative according to any one of claims 1 to 8 as a host material.
12. A light emitting device comprising the light emitting element according to claim 9 in a pixel portion.
13. An electronic appliance comprising the light emitting element according to claim 9 in a display portion.

1. A tight-buffered optical fiber unit, comprising:
an optical fiber comprising a glass fiber surrounded by a optical-fiber coating including one or more coating layers; and
a polymeric buffering layer tightly surrounding the optical fiber to define a fiber-buffer interface, the polymeric buffering layer including an aliphatic amide slip agent in an amount sufficient for at least some of the aliphatic amide slip agent to migrate to the fiber-buffer interface and thereby promote easy stripping of the polymeric buffering layer;
wherein at least about 15 centimeters of the polymeric buffering layer can be removed from the optical fiber in a single operation using a strip force of less than about 10 N.
2. An optical fiber unit according to claim 1, wherein the optical-fiber coating includes a primary coating layer surrounding the glass fiber and a secondary coating layer surrounding the primary coating layer.
3. An optical fiber unit according to claim 2, wherein the optical-fiber coating includes an ink layer surrounding the secondary coating layer.
4. An optical fiber unit according to claim 1, wherein the outer diameter of the optical fiber and the inner diameter of the polymeric buffering layer are essentially the same.
5. An optical fiber unit according to claim 1, wherein the polymeric buffering layer has a Shore A hardness of at least about 90.
6. An optical fiber unit according to claim 1, wherein:
the polymeric buffering layer predominately comprises a polyolefin; and
the aliphatic amide slip agent possesses low solubility within the polyolefin to facilitate the migration of the aliphatic amide slip agent to the fiber-buffer interface.
7. An optical fiber unit according to claim 1, wherein the aliphatic amide slip agent is incorporated into the polymeric buffering layer in an amount less than about 3000 ppm.
8. An optical fiber unit according to claim 1, wherein the aliphatic amide slip agent is incorporated into the polymeric buffering layer in an amount between about 750 ppm and 1250 ppm.
9. An optical fiber unit according to claim 1, wherein at least about 20 centimeters of the polymeric buffering layer can be removed from the optical fiber in a single operation using a strip force of less than about 5 N.
10. An optical fiber unit according to claim 1, wherein at least about 30 centimeters of the polymeric buffering layer can be removed from the optical fiber in a single operation using a strip force of less than about 10 N.
11. An optical fiber unit according to claim 1, wherein:
the optical fiber is a multimode optical fiber complying with the ITU-T G.651.1 recommendation; and
the optical fiber unit has, at a wavelength of 1300 nanometers, attenuation less than about 1 dBkm as measured at \u22125\xb0 C. after performing two temperature cycles from \u22125\xb0 C. to 60\xb0 C.
12. An optical fiber unit according to claim 11, wherein:
the multimode optical fiber has macrobending losses greater than 0.1 dB at a wavelength of 850 nanometers for a winding of two turns around a spool with a bending radius of 15 millimeters; and
the multimode optical fiber has macrobending losses greater than 0.3 dB at a wavelength of 1300 nanometers for a winding of two turns around a spool with a bending radius of 15 millimeters.
13. An optical fiber unit according to claim 1, wherein:
the optical fiber is a multimode optical fiber complying with the ITU-T G.651.1 recommendation; and
the optical fiber unit has, at a wavelength of 1300 nanometers, attenuation less than about 0.6 dBkm as measured at \u22125\xb0 C. after performing two temperature cycles from \u22125\xb0 C. to 60\xb0 C.
14. An optical fiber unit according to claim 13, wherein:
the multimode optical fiber has macrobending losses greater than 0.1 dB at a wavelength of 850 nanometers for a winding of two turns around a spool with a bending radius of 15 millimeters; and
the multimode optical fiber has macrobending losses greater than 0.3 dB at a wavelength of 1300 nanometers for a winding of two turns around a spool with a bending radius of 15 millimeters.
15. An optical fiber unit according to claim 1, wherein:
the optical fiber is a single-mode optical fiber; and
as measured at \u22125\xb0 C. after performing two temperature cycles from \u221240\xb0 C. to 70\xb0 C., the optical fiber unit has attenuation (i) less than about 0.5 dBkm at a wavelength of 1310 nanometers and (ii) less than about 0.3 dBkm at a wavelength of 1550 nanometers.
16. A method for manufacturing an optical fiber unit according to claim 1, comprising:
incorporating an aliphatic amide slip agent into a polymeric composition to form a polymeric buffering compound;
extruding the polymeric buffering compound continuously around the optical fiber to form the optical fiber unit.
17. A method according to claim 16, wherein the step of incorporating an aliphatic amide slip agent into a polymeric composition comprises incorporating into a polyolefin an aliphatic amide slip agent that has sufficiently low solubility within the polyolefin to promote the migration of the aliphatic amide slip agent to the fiber-buffer interface during andor after the extrusion step.
18. A semi-tight-buffered optical fiber unit, comprising:
an optical fiber comprising a glass fiber surrounded by a optical-fiber coating including one or more coating layers; and
a polymeric buffering layer surrounding the optical fiber to define an annular gap therebetween, the polymeric buffering layer including an aliphatic amide slip agent in an amount sufficient for at least some of the aliphatic amide slip agent to migrate to the annular gap and thereby promote easy stripping of the polymeric buffering layer;
wherein at least about 25 centimeters of the polymeric buffering layer can be removed from the optical fiber in a single operation using a strip force of less than about 10 N.
19. An optical fiber unit according to claim 18, wherein the optical-fiber coating includes a primary coating layer surrounding the glass fiber and a secondary coating layer surrounding the primary coating layer.
20. An optical fiber unit according to claim 19, wherein the optical-fiber coating includes an ink layer surrounding the secondary coating layer.
21. An optical fiber unit according to claim 18, wherein the inner diameter of the polymeric buffering layer is no more than about 30 microns greater than the outer diameter of the optical fiber.
22. An optical fiber unit according to claim 18, wherein the polymeric buffering layer has a Shore A hardness of at least about 90.
23. An optical fiber unit according to claim 18, wherein the polymeric buffering layer predominately comprises a polyolefin.
24. An optical fiber unit according to claim 18, wherein the aliphatic amide slip agent is incorporated into the polymeric buffering layer in an amount between about 200 ppm and 2000 ppm.
25. An optical fiber unit according to claim 18, wherein at least about 50 centimeters of the polymeric buffering layer can be removed from the optical fiber in a single operation using a strip force of less than about 5 N.
26. An optical fiber unit according to claim 18, wherein at least about 100 centimeters of the polymeric buffering layer can be removed from the optical fiber in a single operation using a strip force of less than about 10 N.
27. An optical fiber unit according to claim 18, wherein:
the optical fiber is a multimode optical fiber complying with the ITU-T G.651.1 recommendation; and
the optical fiber unit has, at a wavelength of 1300 nanometers, attenuation less than about 1 dBkm as measured at \u22125\xb0 C. after performing two temperature cycles from \u22125\xb0 C. to 60\xb0 C.
28. An optical fiber unit according to claim 27, wherein:
the multimode optical fiber has macrobending losses greater than 0.1 dB at a wavelength of 850 nanometers for a winding of two turns around a spool with a bending radius of 15 millimeters; and
the multimode optical fiber has macrobending losses greater than 0.3 dB at a wavelength of 1300 nanometers for a winding of two turns around a spool with a bending radius of 15 millimeters.
29. An optical fiber unit according to claim 18, wherein:
the optical fiber is a multimode optical fiber complying with the ITU-T G.651.1 recommendation; and
the optical fiber unit has, at a wavelength of 1300 nanometers, attenuation less than about 0.8 dBkm as measured at \u22125\xb0 C. after performing two temperature cycles from \u22125\xb0 C. to 60\xb0 C.
30. An optical fiber unit according to claim 29, wherein:
the multimode optical fiber has macrobending losses greater than 0.1 dB at a wavelength of 850 nanometers for a winding of two turns around a spool with a bending radius of 15 millimeters; and
the multimode optical fiber has macrobending losses greater than 0.3 dB at a wavelength of 1300 nanometers for a winding of two turns around a spool with a bending radius of 15 millimeters.
31. An optical fiber unit according to claim 18, wherein:
the optical fiber is a single-mode optical fiber; and
as measured at \u22125\xb0 C. after performing two temperature cycles from \u22125\xb0 C. to 60\xb0 C., the optical fiber unit has attenuation (i) less than about 0.5 dBkm at a wavelength of 1310 nanometers and (ii) less than about 0.3 dBkm at a wavelength of 1550 nanometers.
32. An optical fiber unit according to claim 31, wherein the single-mode optical fiber (i) complies with the ITU-T G.652.D recommendation but (ii) complies with neither the ITU-T G.657.A recommendation nor the ITU-T G.657.B recommendation.

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. Device for securing an attachment device for a prosthesis andor a prosthesis adapter to a prosthesis shaft, comprising:
a first holder for the prosthesis shaft,
a second holder for the attachment device, said second holder being arranged in particular below the first holder,
means for relative sliding andor pivoting of the prosthesis shaft fixed in the first holder and of the attachment device fixed in the second holder, and
means for firmly connecting the fixed prosthesis shaft and the fixed attachment device in a desired relative position andor orientation.
2. Device according to claim 1, wherein the means for the firm connection comprise a flexible connecting sleeve that can be secured in particular on the attachment device, in particular by means of a web corresponding to a groove of the attachment device, and that seals off the free space between the prosthesis shaft fixed in the first holder and the attachment device fixed in the second holder.
3. Device according to claim 2, wherein the connecting sleeve has a configuration corresponding to the desired final shape of the connection, in particular a frustoconical shape andor a cylindrical shape, andor is made of a material that does not undergo any appreciable adhesive bonding to a filler.
4. Device according to claim 1, wherein the means for the relative pivoting andor sliding comprise a height-adjusting mechanism for the first holder andor at least one pivoting device for the first holder.
5. Device according to claim 1, wherein at least one measuring device is provided for indicating an adjusted relative positioning andor orientation.
6. Method for securing an attachment device for a prosthesis andor a prosthesis adapter to a prosthesis shaft, in particular using a device according to claim 1, wherein
the attachment device, in a second holder, and the prosthesis shaft, in a first holder, are fixed in a defined relative position andor orientation to each other,
a final relative position andor orientation is set by sliding andor pivoting the holders relative to each other, and
the fixed attachment device and the fixed prosthesis shaft are secured to each other to form a firm connection in the final relative position andor orientation.
7. Method according to claim 6, wherein the first holder, lying above the second holder, is pivoted andor adjusted in height andor the second holder is moved in a horizontal plane.
8. Method according to claim 6, wherein geometric data describing the final relative position andor orientation are measured andor read off by means of at least one measuring device.
9. Method according to claim 6, wherein a free space lying between the fixed attachment device and the fixed prosthesis shaft is filled with a filler, in particular a PU foam, which, in the hardened state, forms at least a part of the connection.
10. Method according to claim 9, wherein, as a mold for the filler, an in particular cylindrical andor frustoconical, elastic connecting sleeve is used for sealing the free space and is secured in particular to the attachment device, in particular by means of a web corresponding to a groove formed on the attachment device.
11. Method according to claim 9, wherein, in order to protect the filler, the latter is provided with a protective lining, in particular a preferably resin-impregnated hose or cone made of a flexible fabric is rolled onto the hardened filler at least, in particular also onto the holder andor at least part of the prosthesis shaft.
12. Method according to one of claim 6, wherein a prosthesis adapter, in particular a modular prosthesis adapter, is mounted on the attachment device.
13. Protective lining for a connection, comprising a hardened filler material, of a prosthesis shaft to an attachment device for a prosthesis andor a prosthesis adapter, which connection has been established in particular with the device according to claim 1, wherein the in particular hose-shaped or cone-shaped protective lining consisting of an elastic fabric can be pulled, in particular rolled, onto the connection.
14. Protective lining according to claim 13, wherein it is also dimensioned to cover at least part of the attachment device andor at least part of the prosthesis shaft.