13 December 2009
FDA Meat Rules
Chicken
http://www.fsis.usda.gov/factsheets/chicken_food_safety_focus/index.asp
Ground Beef
http://www.fsis.usda.gov/factsheets/Ground_Beef_and_Food_Safety/index.asp
Just a helpful hint from me to you. :)
25 November 2009
26 October 2009
Prepping for Halloween ...
12 October 2009
Toddler Sarcasm/Wit
James: Landon!
Landon: I'm sleeping!
11 September 2009
Paperwork.
One of my least favorite parts of being in the military? My kid is on his 4th pediatrician in less than 3 years. I am moving him to the 4th because the 3rd was crappy. So I've been sitting tonight prepping a file to take in to the new doctor's office. Patient info, patient history, insurance, liability/release forms, immunization records (written down in 3 different forms), and medical records. Ugh. But hey that's okay, thank you God that we can afford to send my kid to a doctor. Remind me of that next time I complain. :)
03 September 2009
Thoughts while researching preschool curriculum:
From "Much Too Early" by David Elkind, Ph.D. (full article at http://www.besthomeschooling.org/articles/david_elkind.html)
Complex Understandings
Those who believe in academic training for very young children make a fundamental error: They fail to recognize that there are different levels of understanding in math and reading. Learning to identify numbers and letters is far different from learning to perform mathematical operations and to read with understanding. This is easy to support. "Sesame Street" has run for more than 30 years. Children today know their numbers and letters earlier than ever before. Many know them by age two. Yet children today are not learning math or reading any earlier or better than did children before there was "Sesame Street." Learning the names of numbers and letters is only the first step in the attainment of true numerical understanding and reading comprehension.
Take the concept of numbers. The three levels of numerical understanding-nominal, ordinal, and interval-correspond to different forms of scaling. Nominal numbering is the use of a number as a name, such as the numbers basketball players wear on their uniforms. By the age of two or three, children can use numbers in the nominal sense. By the age of four or five, children can begin to use ordinal numbers; they can order things according to quantitative differences. For instance, they can arrange a series of size-graded blocks or sticks from the smallest to the largest. Once the arrangement is complete, however, they are not able to insert a new, intermediate-sized element into the perceptual array.
It is only at age six or seven, when they have attained what Piaget calls "concrete operations," that children can construct the concept of a "unit," the basis for understanding the idea of interval numbers. To attain the unit concept, children must come to understand that every number is both like every other number, in the sense that it is a number, and at the same time different in its order of enumeration. Once children attain the unit concept, their notion of number is abstract and divorced from particular things, unlike nominal and ordinal numbers. Mathematical operations like addition, subtraction, and multiplication can be performed only on numbers that represent units that can be manipulated without reference to particular things.
The interval concept of numbers is an intellectual construction. It builds on children's practice in classifying things (attending to their sameness) and in seriating them (attending to their difference). At a certain point, and with the aid of concrete operations, children are able to bring these two concepts, of sameness and difference, together into the higher-order concept of a unit, which brings together the ideas of sameness and difference. It is only when children understand that something can be the same and different that they have a true understanding of quantity. Learning the names of numbers and rote counting are less important in this attainment than is practice in classifying and seriating many different materials.
A similar hierarchy of understanding is involved in learning to read. In fact, in some respects reading is a more complex process than arithmetic, in that it involves auditory and visual discrimination as well as cognitive construction. Nonetheless, the principle is the same.
The earliest level of reading is the recognition of words by sight. At ages two or three, a child may learn "stop" and "go" in part by the perceptual configuration and in part by the colors associated with these words. Sight words are like nominal numbers; they reflect a very early level of reading achievement. A second level of reading is phonetic; this concept corresponds roughly to ordinal numbers. Children at four or five can learn the sounds for single letters and are able to read words like "hat," "cat," "sat," and so on.
The same child who can read phonetically, however, may not be able to read phonemically. To read phonemically, a child must be able to recognize that a letter can be pronounced differently depending on the context. A child who can read "hat," "cat," and "sat" may have trouble with "ate," "gate," and "late." Likewise, a child who knows "pin" may have trouble with "spin" because it involves a blend of consonants that may throw kids off. In Piaget's terminology, "concrete" operations are required for this highest level of reading.
Those calling for academic instruction of the young don't seem to appreciate that math and reading are complex skills acquired in stages related to age. Children will acquire these skills more easily and more soundly if their lessons accord with the developmental sequence that parallels their cognitive development.

