Claims Analysis
Total Claims: 12
Claim 1
Independent Claim
231 words
A method of cooling a component, comprising the steps of: providing a cooling cap, wherein the cooling cap comprises a first thermally conductive material; attaching the component to a circuit board, wherein the component includes a plurality of leads and wherein the circuit board includes a component-mounting surface and a plurality of traces, wherein the step of attaching includes the steps of: placing the component on the circuit board such that the leads extend outward from the component along the component-mounting surface; and establishing an electrical connection between one of the leads and one of the plurality of traces; determining a maximum possible gap between the attached component and the cooling cap; depositing an amount of second thermally conductive material needed to bridge the maximum possible gap between the attached component and the cooling cap; and rigidly suspending said cooling cap over the circuit board such that a thermally conductive path extends from the component through the second thermally conductive material to the cooling cap and such that most of the weight of said cooling cap is transferred to the circuit board rather than falling on the component, wherein the step of rigidly suspending includes the steps of: positioning the cooling cap adjacent the component; and releasing the cooling cap; wherein the cooling cap, when released, remains in thermal contact with the component without lifting the component from the circuit board.
Claim 2
Independent Claim
231 words
A method of cooling a component, comprising the steps of: providing a cooling cap, wherein the cooling cap comprises a first thermally conductive material; attaching the component to a circuit board, wherein the component includes a plurality of leads and wherein the circuit board includes a component-mounting surface and a plurality of traces, wherein the step of attaching includes the steps of: placing the component on the circuit board such that the leads extend outward from the component along the component-mounting surface; and establishing an electrical connection between one of the leads and one of the plurality of traces; determining a maximum possible gap between the attached component and the cooling cap; depositing an amount of second thermally conductive material needed to bridge the maximum possible gap between the attached component and the cooling cap; and rigidly suspending said cooling cap over the circuit board such that a thermally conductive path extends from the component through the second thermally conductive material to the cooling cap and such that most of the weight of said cooling cap is transferred to the circuit board rather than falling on the component, wherein the step of rigidly suspending includes the steps of: positioning the cooling cap adjacent the component; and releasing the cooling cap; wherein the cooling cap, when released, remains in thermal contact with the component without lifting the component from the circuit board.
Claim 3
Dependent Claim
43 words
The method according to claim 1, wherein step of positioning includes the step of mounting the cooling cap on risers that fit between the circuit board and the cooling cap such that the weight of the cooling cap is supported by the risers.
Claim 4
Dependent Claim
15 words
The method according to claim 1, wherein the second thermally conductive material is thermal epoxy.
Claim 5
Dependent Claim
134 words
A heat conducting apparatus adapted to conduct heat from a component mounted on a circuit board, comprising: a fastener having a head; a cooling cap wherein the cooling cap comprises a thermally conductive material and wherein the cooling cap includes risers which hold the cooling cap in a rigid position above the component mounted on the circuit board, wherein the cooling cap further includes a bore for receiving the fastener and a counterbore for accepting the head of the fastener, wherein the bore extends through one of the risers; a thermally conductive layer between said cooling cap and the component; and a heat sink mounted adjacent to, and in thermal contact with, the cooling cap such that heat is drawn from the thermally conductive layer through the cooling cap and into said heat sink.
Claim 6
Dependent Claim
134 words
A heat conducting apparatus adapted to conduct heat from a component mounted on a circuit board, comprising: a fastener having a head; a cooling cap wherein the cooling cap comprises a thermally conductive material and wherein the cooling cap includes risers which hold the cooling cap in a rigid position above the component mounted on the circuit board, wherein the cooling cap further includes a bore for receiving the fastener and a counterbore for accepting the head of the fastener, wherein the bore extends through one of the risers; a thermally conductive layer between said cooling cap and the component; and a heat sink mounted adjacent to, and in thermal contact with, the cooling cap such that heat is drawn from the thermally conductive layer through the cooling cap and into said heat sink.
Claim 7
Dependent Claim
16 words
The heat conducting apparatus of claim 4 wherein said thermally conductive layer is a thermal epoxy.
Claim 8
Dependent Claim
21 words
The heat conducting apparatus of claim 4 wherein said attachment means are risers that are separate members from said cooling cap.
Claim 9
Dependent Claim
23 words
The heat conducting apparatus of claim 4 wherein said cooling cap further includes raised portions used to increase transfer of heat to air.
Claim 10
Dependent Claim
130 words
A circuit module, comprising: a printed circuit board having a plurality of traces; a tape automated bonding (TAB) component mounted on said printed circuit board, wherein the TAB component includes leads extending from two or more sides of the component to pads on the printed circuit board; a cooling cap attached to the printed circuit and held rigidly in place over one of said TAB components; a thermally conductive material placed between the cooling cap and the TAB components so as to provide a thermally conductive path between the TAB component and the cooling cap; and a heat sink, wherein the heat sink is in thermal contact with the cooling cap such that heat drawn from the TAB component is conducted through the cooling cap and into the heat sink.
Claim 11
Dependent Claim
130 words
A circuit module, comprising: a printed circuit board having a plurality of traces; a tape automated bonding (TAB) component mounted on said printed circuit board, wherein the TAB component includes leads extending from two or more sides of the component to pads on the printed circuit board; a cooling cap attached to the printed circuit and held rigidly in place over one of said TAB components; a thermally conductive material placed between the cooling cap and the TAB components so as to provide a thermally conductive path between the TAB component and the cooling cap; and a heat sink, wherein the heat sink is in thermal contact with the cooling cap such that heat drawn from the TAB component is conducted through the cooling cap and into the heat sink.
Claim 12
Dependent Claim
22 words
The circuit module according to claim 8, wherein the heat sink extends over the riser and covers the head of the fastener.