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Biomedical subjects

J Schimenti

Publications and source records attributed to J Schimenti.

7 recordsLinked to original sources
PubMed1995

Podiatric malpractice litigation. What to do and what to expect.

Many podiatric physicians will never be sued during their careers, but if a suit happens, it can be one of the most stressful times in their lives. After contacting the insurance carrier, the podiatric physician must then wait as the case develops through the legal system. The deposition is when the podiatric physician will be asked questions about the case. It is important to remember to carefully answer the questions asked. Once in the trial stage, the appearance and testimony of the podiatric physician will be important in the jury's eyes. If a decision is not in your favor, you may be able to appeal the case to a higher court. Some cases may not go to trial as they could be settled or arbitrated along the way. By listening to your attorney and following the attorney's advice and recommendations, the legal process will be easier to manage and understand.

Documentation↗
PubMed1995

Problems with procedures.

The author evaluated over 2,000 nationwide claims in 14 years of podiatric malpractice suits. Surgical results are reviewed along with primary areas that generate claims. Suggestions are given on the impending claims and recommendations for abatement.

Foot↗
PubMed1989

Human homologs of two testes-expressed loci on mouse chromosome 17 map to opposite arms of chromosome 6.

Our laboratory has recently cloned and characterized two testes-expressed loci--the Tcp-10 gene family cluster and the D17Si11 gene--that map to the proximal portion of mouse chromosome 17. Human homologs of both loci have been identified and cloned. Somatic cell hybrid lines have been used to map the human homolog of D17Si11 to the short arm of chromosome 6 (p11-p21.1) along with homologs of other genes from the (Pim-1)-(Pgk-2) region of the mouse chromosome. The human TCP 10 locus maps to the long arm of chromosome 6 (q21-qter) along with homologs of other genes from the mouse chromosome 17 region between the centromere and Pim-1. The mapping of large portions of the mouse t haplotype to unlinked regions on human chromosome 6 rules out the possibility that a t-haplotype-like chromosome could exist in humans.

Alleles↗
PubMed1989

Evolution of mouse chromosome 17 and the origin of inversions associated with t haplotypes.

Mouse t haplotypes are variant forms of chromosome 17 that exist at high frequencies in worldwide populations of several species of house mouse. They are known to differ from wild-type chromosomes with respect to two relative inversions referred to as proximal and distal. An untested assumption has been that these two inversions originated in the chromosomal lineage leading to present-day t haplotypes. To investigate the evolutionary origins of these inversions and the possibility of additional inversions, interspecific crosses were performed between Mus spretus or Mus abbotti and laboratory strains of Mus domesticus that carried wild-type and t haplotypes forms of chromosome 17. The results provide evidence for the existence of two additional nonoverlapping inversions--one between the proximal and distal inversions and one between the centromere and the proximal inversion. These four inversions span nearly the entire region of t haplotype recombination suppression. Considering the distribution of these inversions among the species studied as well as the organization of the D17Leh66 family of DNA elements, we infer that the proximal inversion occurred on the lineage leading to the common ancestor of M. domesticus and M. abbotti, and that the other three inversions occurred on the separate lineage leading to present-day t haplotypes. Alternative models for the evolution of t haplotypes are discussed in light of these findings.

Animals↗
PubMed1988

A candidate gene family for the mouse t complex responder (Tcr) locus responsible for haploid effects on sperm function.

The mouse t complex responder (Tcr) locus plays a central haploid-specific role in the transmission ratio distortion phenotype expressed during germ cell differentiation in t-carrying males. The accumulated data map Tcr to a region of less than 500 kb. Over 400 kb of this region has been cloned and consists entirely of sequences associated with a clustered family of large cross-hybridizing elements of 30 kb to 70 kb in size. We have characterized a gene family within this region that is expressed uniquely in male germ cells with a complex pattern of RNA processing. Antibodies produced against a product of the putative open reading frame recognize a testes-specific polypeptide. Genetic data support the hypothesis that this polypeptide(s) functions to effect the Tcr phenotype.

Amino Acid Sequence↗
PubMed1987

An unstable family of large DNA elements in the center of the mouse t complex.

We have cloned 363 kb (X 10(3) bases) from a novel, locally dispersed family of 11 large DNA elements, called T66 elements, within the center of complete mouse t haplotypes. Homologies among individual members of the T66 family are observed along a repeated unit of at least 75 kb in length. Individual T66 homology units are classified into three subfamilies through hybridization studies with a series of diagnostic subfamily-specific probes. The organization and number of elements in wild-type forms of chromosome 17 are very different from those found within t haplotype forms of this chromosome. The number of T66 elements present within individual chromosomes is highly polymorphic among both inbred strains of mice and among independently derived t haplotypes. Wild-type chromosomes have between five and nine T66 elements distributed between two loci that are separated by a genetic distance of at least three map units, whereas t haplotypes have between 9 and 11 T66 elements within a single cluster. Many of the rare recovered products of recombination between a t haplotype and a wild-type form of chromosome 17 have resulted from recombination within or near the T66 regions present on each chromosome. Molecular and genetic data lead to the speculation that portions of individual T66 homology units could be involved in t haplotype effects on sperm differentiation.

Animals↗