Claims Analysis
Total Claims: 24
Claim 1
Independent Claim
133 words
A semiconductor device comprising a semiconductor chip mounted within an aperture formed in a film carrier having a planar surface, a lead pattern comprising a plurality of spatially disposed conductive leads formed on said planar surface with inner lead ends projected into and over a peripheral edge of said film carrier aperture for bonding to respective electrode pads on an active surface of said semiconductor chip, and encapsulation means formed relative to said semiconductor chip active surface or said semiconductor chip and portions of said inner leads with a sealing resin, the improvement comprising the formation of a spatial interval between the peripheral edge of said film carrier aperture and outer peripheral sides of said semiconductor chip positioned within said film carrier aperture within the range of about 0.4 mm to 0.8 mm.
Claim 2
Dependent Claim
133 words
A semiconductor device comprising a semiconductor chip mounted within an aperture formed in a film carrier having a planar surface, a lead pattern comprising a plurality of spatially disposed conductive leads formed on said planar surface with inner lead ends projected into and over a peripheral edge of said film carrier aperture for bonding to respective electrode pads on an active surface of said semiconductor chip, and encapsulation means formed relative to said semiconductor chip active surface or said semiconductor chip and portions of said inner leads with a sealing resin, the improvement comprising the formation of a spatial interval between the peripheral edge of said film carrier aperture and outer peripheral sides of said semiconductor chip positioned within said film carrier aperture within the range of about 0.4 mm to 0.8 mm.
Claim 3
Dependent Claim
47 words
The semiconductor device of claim 1 wherein the portion of said inner leads extending across the regions of said spatial interval are provided with a corresponding additional length to span said interval so that said inner leads are more pliant and flexible due to their additional length.
Claim 4
Dependent Claim
126 words
A semiconductor device comprising a semiconductor chip mounted within a device aperture formed in a film carrier having a lead pattern comprising a plurality of spatially disposed conductive leads formed on a surface of said film carrier with inner lead ends thereof projected into and over said device aperture for bonding to respective electrode pads on an active surface of said semiconductor chip, and encapsulation means formed relative to said semiconductor chip active surface or said semiconductor chip and portions of said inner leads with a sealing resin, the improvement comprising a plurality of spatially disposed slits formed into said film carrier along at least one edge of said device aperture, said slits parallel to and formed between adjacent inner leads along said device aperture edge.
Claim 5
Dependent Claim
126 words
A semiconductor device comprising a semiconductor chip mounted within a device aperture formed in a film carrier having a lead pattern comprising a plurality of spatially disposed conductive leads formed on a surface of said film carrier with inner lead ends thereof projected into and over said device aperture for bonding to respective electrode pads on an active surface of said semiconductor chip, and encapsulation means formed relative to said semiconductor chip active surface or said semiconductor chip and portions of said inner leads with a sealing resin, the improvement comprising a plurality of spatially disposed slits formed into said film carrier along at least one edge of said device aperture, said slits parallel to and formed between adjacent inner leads along said device aperture edge.
Claim 6
Dependent Claim
27 words
The semiconductor device of claim 3 wherein said slits are long and narrow shaped elongated slots formed in said film carrier extending away from said device aperture.
Claim 7
Dependent Claim
44 words
The semiconductor device of claim 3 wherein said slits form extended tongue portions upon which said inner leads are supported, said tongue portions being flexible permitting said inner leads to absorb stresses imposed upon them during device fabrication or subsequent device handling or utilization.
Claim 8
Dependent Claim
178 words
A semiconductor device comprising a semiconductor chip mounted within a device aperture formed in a film carrier having a lead pattern comprising a plurality of spatially disposed conductive leads formed on a surface of said film carrier with inner lead ends projected into and over said device aperture for bonding to respective electrode pads on an active surface of said semiconductor chip, and encapsulation means formed relative to said semiconductor chip active surface or said semiconductor chip and portions of said inner leads with a sealing resin, a spatial interval formed between the edge of said aperture and the outer side periphery of said semiconductor chip positioned within said device aperture is set within the range of about 0.4 mm to 0.8 mm, the portion of said inner leads extending across the regions of said spatial interval provided with an extended length, and a plurality of spatially disposed slits formed into said film carrier along at least one edge of said device aperture, said slits parallel to and formed between adjacent inner leads along said device aperture edge.
Claim 9
Dependent Claim
178 words
A semiconductor device comprising a semiconductor chip mounted within a device aperture formed in a film carrier having a lead pattern comprising a plurality of spatially disposed conductive leads formed on a surface of said film carrier with inner lead ends projected into and over said device aperture for bonding to respective electrode pads on an active surface of said semiconductor chip, and encapsulation means formed relative to said semiconductor chip active surface or said semiconductor chip and portions of said inner leads with a sealing resin, a spatial interval formed between the edge of said aperture and the outer side periphery of said semiconductor chip positioned within said device aperture is set within the range of about 0.4 mm to 0.8 mm, the portion of said inner leads extending across the regions of said spatial interval provided with an extended length, and a plurality of spatially disposed slits formed into said film carrier along at least one edge of said device aperture, said slits parallel to and formed between adjacent inner leads along said device aperture edge.
Claim 10
Dependent Claim
27 words
The semiconductor device of claim 6 wherein said slits are long and narrow shaped elongated slots formed in said film carrier extending away from said device aperture.
Claim 11
Dependent Claim
44 words
The semiconductor device of claim 7 wherein said slits form extended tongue portions upon which said inner leads are supported, said tongue portions being flexible permitting said inner leads to absorb stresses imposed upon them during device fabrication or subsequent device handling or utilization.
Claim 12
Dependent Claim
196 words
A semiconductor device comprising a semiconductor chip mounted within a device aperture formed in a film carrier having a lead pattern comprising a plurality of spatially disposed conductive leads formed on a surface of said film carrier with inner lead ends projected into and over said device aperture for bonding to respective electrode pads on an active surface of said semiconductor chip, and encapsulation means formed relative to said semiconductor chip active surface or said semiconductor chip and portions of said inner leads with a sealing resin, a spatial interval formed between the edge of said aperture and the outer side periphery of said semiconductor chip positioned within said device aperture is set within the range of about 0.4 mm to 0.8 mm, the portion of said inner leads extending across the regions of said spatial interval provided with an increase in the length to produce a region of lead slack substantially midway along the length of said inner leads, and a plurality of spatially disposed slits formed into said film carrier along at least one edge of said device aperture, said slits parallel to and formed between adjacent inner leads along said device aperture edge.
Claim 13
Dependent Claim
196 words
A semiconductor device comprising a semiconductor chip mounted within a device aperture formed in a film carrier having a lead pattern comprising a plurality of spatially disposed conductive leads formed on a surface of said film carrier with inner lead ends projected into and over said device aperture for bonding to respective electrode pads on an active surface of said semiconductor chip, and encapsulation means formed relative to said semiconductor chip active surface or said semiconductor chip and portions of said inner leads with a sealing resin, a spatial interval formed between the edge of said aperture and the outer side periphery of said semiconductor chip positioned within said device aperture is set within the range of about 0.4 mm to 0.8 mm, the portion of said inner leads extending across the regions of said spatial interval provided with an increase in the length to produce a region of lead slack substantially midway along the length of said inner leads, and a plurality of spatially disposed slits formed into said film carrier along at least one edge of said device aperture, said slits parallel to and formed between adjacent inner leads along said device aperture edge.
Claim 14
Dependent Claim
34 words
The semiconductor device of claim 9 wherein said slack region comprises a bent elbow portion formed in each of said inner leads in the regions of said inner leads extending across said spatial interval.
Claim 15
Dependent Claim
27 words
The semiconductor device of claim 10 wherein said slits are long and narrow shaped elongated slots formed in said film carrier extending away from said device aperture.
Claim 16
Dependent Claim
44 words
The semiconductor device of claim 11 wherein said slits form extended tongue portions upon which said inner leads are supported, said tongue portions being flexible permitting said inner leads to absorb stresses imposed upon them during device fabrication or subsequent device handling or utilization.
Claim 17
Dependent Claim
210 words
A semiconductor device comprising a semiconductor chip mounted within an aperture formed in a film carrier having a planar surface, a lead pattern comprising a plurality of spatially disposed conductive leads formed on said planar surface with inner lead ends projected into and over a peripheral edge of said film carrier aperture for bonding to respective electrode pads on an active surface of said semiconductor chip, and encapsulation means formed relative to said semiconductor chip active surface or said semiconductor chip and portions of said inner leads with a sealing resin, a spatial interval formed between the peripheral edge of said film carrier aperture and outer peripheral sides of said semiconductor chip positioned within said film carrier aperture is set within the range of about 0.4 mm to 0.8 mm, and the portion of said inner leads extending across the regions of said spatial interval provided with an increase in length to produce a region of lead slack substantially midway along the length of said inner leads so that the length of said leads are extended to enhance their pliancy and resiliency after said inner leads have been bonded to said semiconductor chip to reduce the risk of lead breakage during subsequent handling prior to encapsulation with said sealing resin
Claim 18
Dependent Claim
210 words
A semiconductor device comprising a semiconductor chip mounted within an aperture formed in a film carrier having a planar surface, a lead pattern comprising a plurality of spatially disposed conductive leads formed on said planar surface with inner lead ends projected into and over a peripheral edge of said film carrier aperture for bonding to respective electrode pads on an active surface of said semiconductor chip, and encapsulation means formed relative to said semiconductor chip active surface or said semiconductor chip and portions of said inner leads with a sealing resin, a spatial interval formed between the peripheral edge of said film carrier aperture and outer peripheral sides of said semiconductor chip positioned within said film carrier aperture is set within the range of about 0.4 mm to 0.8 mm, and the portion of said inner leads extending across the regions of said spatial interval provided with an increase in length to produce a region of lead slack substantially midway along the length of said inner leads so that the length of said leads are extended to enhance their pliancy and resiliency after said inner leads have been bonded to said semiconductor chip to reduce the risk of lead breakage during subsequent handling prior to encapsulation with said sealing resin
Claim 19
Dependent Claim
34 words
The semiconductor device of claim 13 wherein said slack region comprises a bent elbow portion formed in each of said inner leads in the regions of said inner leads extending across said spatial interval.
Claim 20
Dependent Claim
183 words
A semiconductor device comprising a semiconductor chip mounted within a device aperture formed in a film carrier having a lead pattern comprising a plurality of spatially disposed conductive leads formed on a surface of said film carrier with inner lead ends projected into and over said device aperture for bonding to respective electrode pads on an active surface of said semiconductor chip, and encapsulation means formed relative to said semiconductor chip active surface or said semiconductor chip and portions of said inner leads with a sealing resin, a spatial interval formed between the edge of said aperture and the outer side periphery of said semiconductor chip positioned within said device aperture, the portion of said inner leads extending across the regions of said spatial interval provided with an increase in length to produce a region of lead slack substantially midway along the length of said inner leads, and a plurality of spatially disposed slits formed into said film carrier along at least one edge of said device aperture, said slits parallel to and formed between adjacent inner leads along said device aperture edge.
Claim 21
Dependent Claim
183 words
A semiconductor device comprising a semiconductor chip mounted within a device aperture formed in a film carrier having a lead pattern comprising a plurality of spatially disposed conductive leads formed on a surface of said film carrier with inner lead ends projected into and over said device aperture for bonding to respective electrode pads on an active surface of said semiconductor chip, and encapsulation means formed relative to said semiconductor chip active surface or said semiconductor chip and portions of said inner leads with a sealing resin, a spatial interval formed between the edge of said aperture and the outer side periphery of said semiconductor chip positioned within said device aperture, the portion of said inner leads extending across the regions of said spatial interval provided with an increase in length to produce a region of lead slack substantially midway along the length of said inner leads, and a plurality of spatially disposed slits formed into said film carrier along at least one edge of said device aperture, said slits parallel to and formed between adjacent inner leads along said device aperture edge.
Claim 22
Dependent Claim
34 words
The semiconductor device of claim 15 wherein said slack region comprises a bent elbow portion formed in each of said inner leads in the regions of said inner leads extending across said spatial interval.
Claim 23
Dependent Claim
27 words
The semiconductor device of claim 16 wherein said slits are long and narrow shaped elongated slots formed in said film carrier extending away from said device aperture.
Claim 24
Dependent Claim
44 words
The semiconductor device of claim 17 wherein said slits form extended tongue portions upon which said inner leads are supported, said tongue portions being flexible permitting said inner leads to absorb stresses imposed upon them during device fabrication or subsequent device handling or utilization.