초록 ▼

An improved baking pan kit which includes a baking pan for brownies having twenty square cups disposed in a matrix of five rows and four columns, and a cookie pan having preferably twelve circular cup configurations. Each of the pans in the kit is configured to have a predetermined heat depth and a

An improved baking pan kit which includes a baking pan for brownies having twenty square cups disposed in a matrix of five rows and four columns, and a cookie pan having preferably twelve circular cup configurations. Each of the pans in the kit is configured to have a predetermined heat depth and a convective heat transfer separation distance between respective cups to effect uniform heating of the respective cups containing a cookie and/or a brownie mixture for producing a specific product consistency or outcome. A multilevel storage compartment is used to house a plurality of pans for transport and deployment at various sites for use.

대표청구항 ▼

An improved baking pan kit which includes a baking pan for brownies having twenty square cups disposed in a matrix of five rows and four columns, and a cookie pan having preferably twelve circular cup configurations. Each of the pans in the kit is configured to have a predetermined heat depth and a

An improved baking pan kit which includes a baking pan for brownies having twenty square cups disposed in a matrix of five rows and four columns, and a cookie pan having preferably twelve circular cup configurations. Each of the pans in the kit is configured to have a predetermined heat depth and a convective heat transfer separation distance between respective cups to effect uniform heating of the respective cups containing a cookie and/or a brownie mixture for producing a specific product consistency or outcome. A multilevel storage compartment is used to house a plurality of pans for transport and deployment at various sites for use. from the sheet of material in response to the precise positions of the marks with respect to the graphics area at that time, the improvement comprising: if the subset is not in an expected location, automatically determining a coordinate region of the subset on the sheet-receiving surface; and in response to determining the coordinate region of the subset, automatically repositioning the main sensor to the coordinate region such that the subset is within the field of view of the main sensor whereby cutting occurs precisely despite two-dimensional distortion of the sheet of material prior to cutting. 2. In a method for narrow-path-processing with respect to a graphics area on a sheet of material bearing such graphics area and a plurality of registration marks in predetermined positions with respect thereto, a subset of the marks being initial-position/orientation-determining marks on no more than one side of the graphics area, the method being of a type including (a) placing the sheet of material on a sheet-receiving surface, (b) sensing the subset in a field of view of a main sensor to determine a position and orientation of the sheet of material and approximate positions of the plurality of registration marks, (c) sensing precise positions of the marks, and (d) narrow-path-processing with respect to the graphics area on the sheet of material in response to the precise positions of the marks with respect to the graphics area, the improvement comprising: if the subset is not in an expected location, automatically determining a coordinate region of the subset on the sheet-receiving surface; and in response to determining the coordinate region of the subset, automatically repositioning the main sensor to the coordinate region such that the subset is within the field of view of the main sensor. 3. An apparatus for cutting a graphics area from a sheet of material bearing such graphics area and a plurality of registration marks in predetermined positions with respect thereto, a subset of the marks being initial-position/orientation-determining marks on no more than one side of the graphics area, the apparatus being of a type including (a) a sheet-receiving surface, (b) a main sensor adapted to sense the subset in a field of view of the main sensor to determine a position and orientation of the sheet of material and approximate positions of the plurality of registration marks and to sense precise positions of the marks, and (c) a cutter operatively connected to the sensor and movable about the sheet-receiving surface, the cutter adapted to cut the graphics area from the sheet of material in response to the precise positions of the marks sensed by the main sensor, the improvement comprising a coordinate region locator which includes the main sensor, the coordinate region locator adapted to automatically determine a coordinate region of the subset on the sheet-receiving surface and to automatically reposition the main sensor to the coordinate region such that the subset is within the field of view of the main sensor. 4. The apparatus of 3 wherein the coordinate region locator includes: a zoom lens on the main sensor; and a controller adapted to (a) enlarge the field of view of the main sensor by zooming the lens, (b) locate the coordinate region of the subset within the enlarged field of view, (c) reposition the main sensor in response to the locating step, and (d) shrink the field of view of the main sensor by zooming the lens such that the subset is within the field of view of the main sensor. 5. The apparatus of claim 3 wherein the coordinate region locator includes: a main-sensor height adjustor; and a controller adapted to (a) enlarge the field of view of the main sensor by increasing the distance of the main sensor from the sheet of material, (b) locate the coordinate region of the subset within the enlarged field of view, (c) reposition the main sensor in response to the locating step, and (d) shrink the f