1. A combination comprising:
a heat pipe; and
two identical platforms, each of the platforms comprising;
a base; and
a clip integrally extending from the base, the clip defining a substantially central aperture for receiving part of the heat pipe, and a plurality of grooves radially around the aperture and separated from the aperture by thin partitions of the clip.
2. The combination of claim 1, wherein the base defines a hole therein, and a heating member for heating the heat pipe or a cooling member for cooling the heat pipe is set in the hole.
3. The combination of claim 2, wherein a plurality of temperature measuring points spaced apart from each other at uniform intervals is defined in each of the platforms between the aperture and the hole.
4. The combination of claim 3, wherein thermal probes are positioned at the temperature measuring points for measuring temperatures thereat.
5. The combination of claim 4, wherein the temperature measuring points are orifices defined in each of the platforms.
6. A mechanism for having thermal contact with a pipe-like member, comprising:
a clip defining an aperture therein to partially receive said pipe-like member;
a split formed on said clip and communicating said aperture with an outside of said clip so as to enable said aperture to be radially size-variable; and
at least one groove extending from an outer surface of said clip toward said aperture without any communication with said aperture so as to enhance flexibility of said clip.
7. The mechanism of claim 6, wherein said clip is formed on a platform having a temperature adjusting member therein.
8. The mechanism of claim 6, wherein said clip defines a plurality of temperature measuring points spaced apart from each other at uniform intervals and being next to said aperture.
9. The heat pipe combination of claim 8, wherein thermal probes are positioned at said temperature measuring points for measuring temperatures thereat.
10. The heat pipe combination of claim 9, wherein said temperature measuring points comprise orifices defined in said clip.
11. A measuring device, comprising:
a first platform comprising an aperture for flexibly receiving a first end of a heat pipe therein, the first platform further comprising plurality of grooves radially defined therein around the aperture, wherein the grooves are separated from the aperture by thin partitions of the first platform;
a second platform comprising an aperture for flexibly receiving a second end of the heat pipe therein, the second platform further comprising a plurality of grooves radially defined therein around the aperture, wherein the grooves are separated from the aperture by thin partitions of the second platform;
a heating member for heating the first end of the heat pipe;
a cooling member for cooling the second end of the heat pipe; and
thermal probes received into the first platform and the second platform for measuring temperatures where they are positioned.
12. The measuring device of claim 1, wherein a hole is defined in each of the platforms, for receiving the heating member or the cooling member.
13. The measuring device of claim 12, wherein a plurality of orifices is defined in each of the platforms between the hole and the heat pipe, for receiving the thermal probes therein.
14. The measuring device of claim 13, wherein the orifices are linearly arranged at uniform intervals.
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 coated paper having, on at least one side of its base paper, two or more coating layers comprising a pigment and an adhesive as main components, said coated paper having, in its base coating layer in contact with the base paper, at least 50 parts by mass of a flat shape pigment per 100 parts by mass of the total amount of the pigments, said flat shape pigment satisfying the following conditions (1) and (2), and having a Clark stiffness along the CD direction of at least 14 cm and a white paper glossiness of at least 45%:
(1) an average particle size of 0.2-5.0 \u03bcm, determined by the sedimentation method:
(2) an aspect ratio (long axisthickness) of 25-120.
2. The coated paper according to claim 1, wherein said flat shape pigment is an engineered kaolin.
3. The coated paper according to claim 1, wherein the air resistance of said coated paper sheet is not more than 7,000 seconds.
4. The coated paper according to claim 1, wherein the adhesive component of said base coating layer is 5-30 parts by mass per 100 parts by mass of the pigment component contained in the base coating layer.
5. The coated paper according to claim 1, wherein the fiber orientation ratio of said base paper is 1.00-1.50.
6. The coated paper according to claim 1, wherein the fiber orientation ratio measured from the surface of the coated paper is 1.00-1.50.
7. The coated paper according to claim 1, wherein the base weight of the coated paper sheet is 35-80 gm2.
8. The coated paper according to claim 1, wherein fine particles having an average particle size of 500 nm or less are contained at 0.5 gm2 or greater in the top coating layer on said base coating layer.
9. The coated paper according to claim 1, wherein spherical particles having an average particle size of 1-50 \u03bcm are contained in said base coating layer.