Join the 200th Anniversary Celebration

Original Article

Twelve Years' Experience with National Sharing of HLA-Matched Cadaveric Kidneys for Transplantation

Steven K. Takemoto, Ph.D., Paul I. Terasaki, Ph.D., David W. Gjertson, Ph.D., and J. Michael Cecka, Ph.D.

N Engl J Med 2000; 343:1078-1084October 12, 2000

Abstract

Background

In October 1987, the United Network for Organ Sharing (UNOS) established a national kidney-sharing program to increase the number of HLA-matched transplantations. Since then, over 7500 cadaveric kidneys have been shipped to centers in 48 states for transplantation to HLA-matched patients. We evaluated the efficacy of the program during its first 12 years of operation.

Methods

We compared the rates of rejection and actuarial graft survival for 7614 HLA-matched and 81,364 HLA-mismatched cadaveric kidney transplantations reported to the UNOS Scientific Registry between October 1987 and September 1999. To assess the effects of the extended period of ischemia associated with shipping HLA-matched kidneys, we identified 3562 pairs of cadaveric kidneys in which one kidney went to an HLA-matched recipient and the other went to an HLA-mismatched recipient.

Results

The estimated 10-year rate of graft survival was 52 percent for HLA-matched transplants, as compared with 37 percent for HLA-mismatched transplants. The estimated half-lives of the transplants were 12.5 years and 8.6 years, respectively, and the mean duration of cold ischemia was 23 hours and 22 hours, respectively. After adjustment for the effects of demographic characteristics, at 10 years the overall rates of graft survival and the rates of functional-graft survival (with data censored on patients who died with a functioning graft) were 10 percent and 11 percent higher, respectively, for HLA-matched transplants than for HLA-mismatched transplants. Among 3562 pairs of kidneys, HLA-matched transplants had higher rates of survival, a lower incidence of episodes of rejection, and a lower risk of loss as a result of rejection.

Conclusions

A superior graft outcome with little increase in the duration of cold ischemia justifies national sharing of HLA-matched kidney transplants.

Media in This Article

Figure 3Rates of Graft Survival and Functional-Graft Survival for 3562 Pairs of Kidneys from Donors in Which One Kidney Was Given to an HLA-Matched Recipient and the Other to an HLA-Mismatched Recipient.
Figure 2Actuarial Rates of Graft Survival and of Functional-Graft Survival for HLA-Matched and HLA-Mismatched Cadaveric Kidneys after Adjustment for the Effects of the Recipient's Race, Age, and Level of Panel-Reactive HLA Antibodies; the Presence or Absence of Diabetes Mellitus and a History of Transplantation in the Recipient; the Donor's Age and Cause of Death; the Duration of Cold Ischemia; the Transplantation Center; and the Year of Transplantation.
Article

Through an agreement among U.S. transplantation centers, the United Network for Organ Sharing (UNOS) established a program in 1987 to ship kidneys anywhere in the United States to a recipient who had the same HLA-A, B, and DR antigens as the donor. By September 1999, 7614 HLA-matched kidney transplantations had been performed. Despite concern about the cost effectiveness and value of this program, the results of the first 1386 HLA-matched transplantations were very promising.1 Since that time, there have been substantial improvements in immunosuppression protocols, the criteria for the acceptance of organs have been broadened to include older donors,2 and the definition of an HLA-matched kidney has been expanded.3 We therefore reexamined the results of the national kidney-sharing program after more than 10 years of operation and compared the survival rates of HLA-matched and HLA-mismatched kidney transplants.

Methods

According to the UNOS Scientific Renal Transplant Registry, 7614 patients received kidney transplants from HLA-matched donors and 81,364 patients received kidneys from HLA-mismatched donors through September 1999. The 10 factors with the most influence on graft survival were the recipient's race, age, level of reactive HLA antibodies before transplantation (defined as the percentage of a panel of normal-donor cells that reacted with the recipient's serum — that is, the panel-reactive antibody value),4 number of previous transplantations, and the cause of end-stage renal disease; the transplantation center; the donor's age and cause of death (excluding trauma); the duration of cold ischemia; and the year of transplantation.5 The distributions of these covariates among the HLA-matched and HLA-mismatched patients and donors are summarized in Table 1Table 1Characteristics of the Patients According to Whether They Received an HLA-Matched or an HLA-Mismatched Kidney Transplant.. The mean (±SD) duration of cold ischemia was 23±8 hours for the patients who received HLA-matched kidneys, as compared with 22±10 hours for the patients who received HLA-mismatched kidneys (P<0.001). More than 83 percent (6387 of 7614) of the HLA-matched kidneys were shipped by the organ-procurement organization for transplantation at a distant transplantation center, whereas 77 percent (62,895 of 81,364, P<0.001) of the HLA-mismatched kidneys were shipped within the organization's local service area.

The HLA-matching criteria were modified twice during the program. Initially, all six HLA-A, B, and DR antigens (two antigens at each locus) had to be identical in the donor and the recipient. In August 1990, donors and recipients who were both homozygous for the same loci were considered to be phenotypically matched for HLA antigens. Finally, in March 1995, the criteria were expanded further to include any donor who had no HLA-A, B, or DR antigens that were not also detected in the recipient (referred to as no mismatches); in other words, the recipient was matched with respect to these HLA antigens, but the recipient could still have had antigens that were not present in the donor. Microcytotoxicity tests were used for HLA typing in the majority of donors,4 and kidneys were allocated on the basis of the results of tests at 14 HLA-A loci, 45 HLA-B loci, and 10 HLA-DR loci.

To analyze the effect of the extended duration of cold ischemia associated with nationwide shipping of organs, we identified pairs of kidneys from 3562 cadaveric donors in which one kidney was transplanted into an HLA-matched recipient and the other kidney into an HLA-mismatched recipient. We also used these pairs to determine whether shipping was associated with delayed graft function (defined as anuria on the day after transplantation or the need for dialysis during the first week after surgery), episodes of rejection, or graft failure.

We used the Kaplan–Meier product-limit method for univariate analyses of survival. We determined statistical significance by making log-rank comparisons of survival curves using two-sided P values. We calculated half-lives of grafts at one year, assuming that the rate of failure was constant thereafter, as previously described.6 A multifactor analysis of the variables listed in Table 1 was performed with the use of Cox proportional-hazards analysis. We examined the proportional-hazards assumption by plotting the graft-survival curves for each subgroup of a covariate on a log–log scale. (For continuous variables, we created four to five equal-sized groups for diagnostic comparisons.) Since the curves appeared reasonably parallel, we regarded the proportional-hazards model as appropriate. Data on patients who died with a functioning graft were censored at the time of death in the calculation of the survival of functional grafts. The effects of the ages of the recipients and the donors were approximated with both linear and quadratic terms.5 We used Stata statistical software (College Station, Tex.) for all statistical analyses.

Results

Before the kidney-sharing program was initiated, only 2 percent of transplants were HLA-matched. After the program was initiated, 5 percent of kidneys were transplanted in HLA-matched recipients with use of the six-antigen matching criteria. Use of the phenotypic criteria increased the percentage to 7 percent, and use of the no-mismatch criteria increased it to 13 percent. The survival rate of HLA-matched kidney transplants was similar regardless of the criteria by which they were selected. A total of 3375 transplants were matched for six HLA antigens, 1336 were phenotypically matched, and 2903 had no mismatches. For each type, the survival rates were significantly higher than those for HLA-mismatched transplants (P<0.001) (Figure 1Figure 1Estimated Rates of Graft Survival among Recipients of HLA-Matched Cadaveric Kidneys Chosen with the Use of Three Different Matching Algorithms and Recipients of HLA-Mismatched Transplants.). The similar rates of graft survival among the HLA-matched subgroups indicate that HLA typing techniques were sufficiently accurate that a missing antigen could be interpreted as implying homozygosity rather than the failure to detect the antigen.

The estimated half-life of the entire group of HLA-matched transplants was 12.5 years, significantly longer than the estimate of 8.6 years for the group of HLA-mismatched transplants (P<0.001). The estimated 10-year rate of graft survival for the HLA-matched transplants was 52 percent, as compared with a rate of 37 percent for the HLA-mismatched transplants (P<0.001).

Although there were no significant differences in the long-term rates of graft survival among the subgroups of HLA-matched transplants, the adoption of the expanded criteria in 1995 broadened the number of HLA-matched recipients that could be identified. Therefore, the rate of transplantation of HLA-matched cadaveric kidneys increased from 7 percent in 1994 to 13 percent in 1995, coincident with the change in criteria.

During the study period, the proportion of kidneys from older cadaveric donors increased steadily in response to the increasing demand for transplants. In 1988, 6 percent of transplanted cadaveric kidneys were from donors over the age of 55 years, and that fraction increased to 13 percent in 1997. The donor's age had a significant effect on long-term graft survival. The 10-year rate of graft survival among recipients of HLA-matched kidneys declined with increasing donor age: the rate was 68 percent among patients whose donor was 15 years of age or younger and 32 percent among those whose donor was older than 55 years. The difference in 10-year rates of graft survival between HLA-matched and HLA-mismatched recipients was greatest (28 percent) among those whose donor was 15 years of age or younger and least (10 percent) among those whose donor was older than 55 years.

Table 2Table 2Estimated Half-Life of HLA-Matched Grafts and HLA-Mismatched Grafts for the Periods from 1987 to 1999 and 1994 to 1999, According to Factors That Influence the Long-Term Survival of Grafts. lists the estimated half-lives of grafts according to several factors that influence long-term survival of transplants. Transplantations performed between 1994 and 1999 were also analyzed separately because both short- and long-term rates of graft survival improved during this period. Although the variations attributable to each of these factors are made evident by the differences in the graft half-lives, the long-term results for HLA-matched transplants were better for each period.

One group of HLA-matched recipients in which there was no significant improvement in the half-life of grafts for the period from 1994 to 1999 was black recipients. We compared various factors among the HLA-matched black recipients and white recipients and found that blacks were more often matched for blood type (A, B, or O) than were whites (62 percent vs. 58 percent, P=0.03), more often received a kidney from a donor whose death was not related to trauma (46 percent vs. 40 percent, P=0.003), and more often received a kidney for which the duration of cold ischemia was less than 24 hours (63 percent vs. 58 percent, P=0.007). Blacks also more often received matched kidneys from donors with no HLA-A, B, or DR antigen mismatches (59 percent vs. 35 percent, P<0.001). The factor with the greatest effect on the outcome of transplantation among HLA-matched black recipients was hypertension as the cause of end-stage renal disease. Among hypertensive black recipients of an HLA-matched kidney, the half-life of the transplant was 5.2 years, as compared with 10.8 years for black recipients with other renal diseases (P=0.005). Among HLA-matched white recipients, there was no significant difference in the half-life of the transplant between those with hypertension and those with other causes of renal failure (13.4 vs. 12.8 years, P=0.39).

The benefit of HLA matching was most evident at the 20 transplantation centers that had each performed more than 100 cadaveric kidney transplantations overall and had the highest overall rates of five-year graft survival (Table 2). The graft half-life of 11.8 years among HLA-mismatched transplants at these centers was similar to the graft half-life of 12.5 years among HLA-matched transplants as a whole. The graft half-life of 22.6 years among HLA-matched transplants at the 20 centers translates into a difference in 10-year rates of graft survival of 18 percentage points (66 percent for HLA-matched transplants, as compared with 48 percent for HLA-mismatched transplants).

The effect of 11 covariates on the relative likelihood of graft loss between 1 and 10 years after transplantation and of the loss of a functional graft, with data on patients who died with a functioning graft censored, is shown in Table 3Table 3Hazard Ratios for the Likelihood of Graft Loss and Functional-Graft Loss, According to a Proportional-Hazards Analysis.. The risk of graft loss was 38 percent higher among recipients of HLA-mismatched transplants than among recipients of HLA-matched transplants. After data on patients who died with a functioning graft were censored, HLA mismatching increased the risk of graft loss by 55 percent. The risk attributed to continuous variables is given as the increased hazard for each increase of one standard deviation above the mean. For example, the mean duration of cold ischemia was 23±8 hours for HLA-matched kidneys. The risk of functional-graft loss was 4 percent higher among transplants with 31 hours of cold ischemia than among those transplanted within 23 hours. The risk of graft loss was particularly high for black patients and patients with a panel-reactive antibody level of more than 80 percent.

The risk of functional-graft loss between 1996 and 1999 was half that for the period from 1987 to 1990. Figure 2Figure 2Actuarial Rates of Graft Survival and of Functional-Graft Survival for HLA-Matched and HLA-Mismatched Cadaveric Kidneys after Adjustment for the Effects of the Recipient's Race, Age, and Level of Panel-Reactive HLA Antibodies; the Presence or Absence of Diabetes Mellitus and a History of Transplantation in the Recipient; the Donor's Age and Cause of Death; the Duration of Cold Ischemia; the Transplantation Center; and the Year of Transplantation. shows survival curves for the grafts as a whole and for functional grafts after adjustment for the effects of the covariates listed in Table 3. At 10 years, the overall rates of graft survival and the rates of functional-graft survival were 10 percent and 11 percent higher, respectively, for HLA-matched transplants than for HLA-mismatched transplants.

For a closer evaluation of the effect of the duration of cold ischemia on the national organ-sharing program, we analyzed the results for pairs of kidneys from 3562 donors in which one kidney was transplanted into an HLA-matched recipient and the other kidney was transplanted into an HLA-mismatched recipient. The incidence of delayed graft function did not differ significantly between the HLA-matched and HLA-mismatched kidneys (21 percent vs. 19 percent, P= 0.15). The recipients of HLA-matched transplants had slightly higher serum creatinine concentrations at discharge (median, 1.8 mg per deciliter [159 μmol per liter] vs. 1.7 mg per deciliter [150 μmol per liter]; P<0.001), but they had a lower incidence of treated episodes of rejection (13 percent vs. 19 percent, P<0.001) and fewer days of hospitalization after the initial transplantation procedure (median, 10 vs. 11; P<0.001). The HLA-matched recipients had significantly higher rates of graft survival, and the estimated survival rates were similar to the overall rates of graft survival: 50 percent for the HLA-matched kidneys and 42 percent (P<0.001) for the HLA-mismatched contralateral kidneys (Figure 3Figure 3Rates of Graft Survival and Functional-Graft Survival for 3562 Pairs of Kidneys from Donors in Which One Kidney Was Given to an HLA-Matched Recipient and the Other to an HLA-Mismatched Recipient.).

During the first year after transplantation, 397 HLA-matched transplants failed, 70 of which (18 percent) were lost because of rejection, and 485 HLA-mismatched contralateral transplants were lost, 117 of which (24 percent, P=0.02) were lost because of rejection. Between one and three years after transplantation, grafts failed in 141 HLA-matched recipients, because of chronic rejection in 36 (26 percent), and 62 of these recipients died (44 percent), whereas the grafts failed in 239 HLA-mismatched recipients, because of chronic rejection in 85 (36 percent), and 75 of these recipients died (31 percent, P=0.03).

Discussion

Since UNOS established the national kidney-sharing program in 1987, many have argued that the resultant increased duration of cold ischemia would offset the benefit of shipping kidneys to HLA-matched patients.7,8 In this study, in three separate analyses, we found that graft survival was superior in patients who received HLA-matched kidneys and that the mean increase in the duration of cold ischemia was small. Shipping kidneys to an HLA-matched recipient did not result in a higher rate of delayed graft function, a complication that may reflect ischemic damage. In fact, there were fewer episodes of rejection during the first three years among the recipients of HLA-matched kidneys than among the recipients of HLA-mismatched kidneys, and fewer transplants failed in this group as a result of either acute or chronic rejection. Moreover, the half-lives of HLA-mismatched kidneys that were transplanted locally were shorter than those of kidneys that were shipped to HLA-matched patients.

Patients with broad sensitization to HLA antigens usually wait much longer for a transplant than those with a low degree of reactivity to HLA antigens.9 The HLA-matching program has benefited these patients in particular, because the percentage of HLA-matched recipients who had levels of panel-reactive antibody of more than 80 percent was more than twice that of HLA-mismatched recipients with similarly high antibody levels. A panel-reactive antibody value of 80 percent indicates that 80 percent of local donors would have a positive crossmatch with the recipient and that the recipient would therefore be an unsuitable candidate for transplantation because of the high risk of hyperacute rejection.10 Women usually wait longer than men for a transplant because of the association between pregnancy and sensitization. In our study, the percentage of women in the group of HLA-matched kidney recipients was the same as that on the waiting list (43 percent).9

The strongest criticism of the HLA-matching program is that there was no significant improvement in long-term graft survival among black recipients. Only 3 percent of blacks received HLA-matched kidneys during the study period. The more extensive polymorphism of HLA phenotypes among blacks11 makes finding good matches difficult. We had earlier found that changes in the matching criteria increased the rate of HLA matching among black recipients by a factor of 6,3 and, indeed, the percentage of HLA-matched grafts among black recipients was 6 percent in the 1994–1999 cohort, indicating a trend toward increased access for these patients.

Other factors may have a role in the poorer long-term survival of grafts in black recipients. Their allogeneic responses may be stronger,12 and they may require higher doses of immunosuppressive therapy to maintain the grafts.13 Hypertension may also be an important factor. We did not find a long-term benefit of HLA matching for blacks with hypertension, whereas blacks with no hypertension had improved long-term graft survival. Blacks reportedly have an increased rate of graft loss when blood pressure is uncontrolled after transplantation.14 The outcome for these patients may improve if their blood pressure is lowered before they undergo transplantation.

We had earlier postulated that the decreasing rates of graft survival with increasing donor age might be due to a natural decrease in the number of functional nephrons as the kidney ages.15 Although HLA matching reduced the risk of loss regardless of the donor's age, the projection that 70 percent of kidneys from donors older than 60 years of age will be lost within 10 years after transplantation suggests that young recipients should not undergo transplantation with organs from older donors, even if they are HLA-matched.

The strong effect of the donor's age illustrates the importance of the physical condition of the kidney transplant. The high rate of success of transplantation of HLA-mismatched kidneys from living unrelated donors has also been cited as evidence that the health of the donor organ is an important factor.16 In our study, the 12.5-year half-life of HLA-matched cadaveric kidneys is similar to the 12-year half-life of kidney grafts from living unrelated donors.

The estimated half-life of HLA-mismatched kidneys transplanted since 1994 is two years longer than it was in our 1992 report on the HLA-matching program.1 Many investigators might take this increase to mean that improvements in immunosuppression protocols, crossmatching techniques, and patient care have reduced the need for HLA matching. We found that the expected functional life of HLA-matched transplants has also increased, with notable improvements among patients who had previously undergone transplantation who had a high immunologic risk.

The UNOS national program recognizes that because of the polymorphism of HLA antigens, there must be a large number of patients on the waiting list to find two unrelated people with identical HLA antigens.17 Approximately 1000 kidneys are transplanted into HLA-matched patients every year. Even with the change in matching criteria implemented in 1995, only 13 percent of the pairs of HLA-matched kidney donors and recipients were from the same geographic region. If the national program of organ sharing were abolished, only 2 percent of patients (about 150 per year) would receive HLA-matched kidneys.

In conclusion, HLA-matched transplants included in the national program of organ sharing were rejected less often and had a higher rate of survival than HLA-mismatched transplants. These results were obtained through the cooperation of all U.S. transplantation centers, and it is likely that the percentage of HLA-matched transplants could be increased by extending the organ-sharing network to include Canada, since many Canadian cities are close to those in the United States.

Supported in part by a grant from the National Institute of Diabetes and Digestive and Kidney Diseases (DK54928-01) and by a subcontract with UNOS, Department of Health and Human Services. The opinions expressed are those of the authors and do not necessarily reflect the opinions or policies of UNOS.

Source Information

From the United Network for Organ Sharing Scientific Renal Transplant Registry and the Department of Pathology, University of California at Los Angeles, Los Angeles.

Address reprint requests to Dr. Takemoto at the Department of Pathology, UCLA, 950 Veteran Ave., Los Angeles, CA 90095, or at .

References

References

  1. 1

    Takemoto S, Terasaki PI, Cecka JM, Cho YW, Gjertson DW. Survival of nationally shared, HLA-matched kidney transplants from cadaveric donors. N Engl J Med 1992;327:834-839
    Full Text | Web of Science | Medline

  2. 2

    Kaufman HM, Bennett LE, McBride MA, Ellison MD. The expanded donor. Transplant Rev 1997;11:165-190
    CrossRef

  3. 3

    Hata Y, Cecka JM, Takemoto S, Ozawa M, Cho YW, Terasaki PI. Effects of changes in the criteria for nationally shared kidney transplants for HLA-matched patients. Transplantation 1998;65:208-212
    CrossRef | Web of Science | Medline

  4. 4

    Terasaki PI, Bernoco D, Park MS, Ozturk G, Iwaki Y. Microdroplet testing for HLA-A, -B, -C, and -D antigens: the Phillip Levine Award Lecture. Am J Clin Pathol 1978;69:103-120
    Web of Science | Medline

  5. 5

    Gjertson DW. A multi-factor analysis of kidney graft outcomes at one and five years posttransplantation: 1996: UNOS update. In: Cecka JM, Terasaki PI, eds. Clinical transplants 1996. Los Angeles: UCLA Tissue Typing Laboratory, 1997:343-60.

  6. 6

    Takiff H, Cook DJ, Himaya NS, Mickey MR, Terasaki PI. Dominant effect of histocompatibility on ten-year kidney transplant survival. Transplantation 1988;45:410-415
    CrossRef | Web of Science | Medline

  7. 7

    Held PJ, Kahan BD, Hunsicker LG, et al. The impact of HLA mismatches on the survival of first cadaveric kidney transplants. N Engl J Med 1994;331:765-770
    Full Text | Web of Science | Medline

  8. 8

    Schnitzler MA, Hollenbeak CS, Cohen DS, et al. The economic implications of HLA matching in cadaveric renal transplantation. N Engl J Med 1999;341:1440-1446
    Full Text | Web of Science | Medline

  9. 9

    Harper AM, Rosendale JD, McBride MM, Cherikh WS, Ellison MD. The UNOS OPTN waiting list and donor registry. In: Cecka JM, Terasaki PI, eds. Clinical transplants 1998. Los Angeles: UCLA Tissue Typing Laboratory, 1999:73-90.

  10. 10

    Patel R, Terasaki PI. Significance of the positive crossmatch test in kidney transplantation. N Engl J Med 1969;280:735-739
    Full Text | Web of Science | Medline

  11. 11

    Beatty PG, Mori M, Milford E. Impact of racial genetic polymorphism on the probability of finding an HLA-matched donor. Transplantation 1995;60:778-783
    CrossRef | Web of Science | Medline

  12. 12

    Kerman RH, Kimball PM, Van Buren CT, Lewis RM, Kahan BD. Stronger immune responsiveness of blacks vs whites may account for renal allograft survival differences. Transplant Proc 1991;23:380-382
    Web of Science | Medline

  13. 13

    Neylan JF. Effect of race and immunosuppression in renal transplantation: three-year survival results from a US multicenter, randomized trial. Transplant Proc 1998;30:1355-1358
    CrossRef | Web of Science | Medline

  14. 14

    Cosio FG, Falkenhain ME, Pesavento TE, et al. Relationships between arterial hypertension and renal allograft survival in African-American patients. Am J Kidney Dis 1997;29:419-427
    CrossRef | Web of Science | Medline

  15. 15

    Terasaki PI, Gjertson DW, Cecka JM, Takemoto S. Fit and match hypothesis for kidney transplantation. Transplantation 1996;62:441-445
    CrossRef | Web of Science | Medline

  16. 16

    Terasaki PI, Cecka JM, Gjertson DW, Takemoto S. High survival rates of kidney transplants from spousal and living unrelated donors. N Engl J Med 1995;333:333-336
    Full Text | Web of Science | Medline

  17. 17

    Mickey MR, Cook DJ, Terasaki PI. Recipient pool sizes for prioritized HLA matching. Transplantation 1989;47:401-403
    CrossRef | Web of Science | Medline

Citing Articles (89)

Citing Articles

  1. 1

    Paul J. Phelan, Patrick O’Kelly, Munir Tarazi, Nadim Tarazi, M. Ridhwaan Salehmohamed, Dilly M. Little, Colm Magee, Peter J. Conlon. (2012) Renal allograft loss in the first post-operative month: causes and consequences. Clinical Transplantationno-no
    CrossRef

  2. 2

    H.S. Lee, M.S. Kim, Y.S. Kim, D.J. Joo, M.K. Ju, S.J. Kim, S.I. Kim, K.H. Huh, K. Park. (2012) Analysis of Transplant Outcomes After Five or Six Human Leukocyte Antigen-Mismatched Living Donor Kidney Transplantation. Transplantation Proceedings 44:1, 273-275
    CrossRef

  3. 3

    I. Karabicak, A. Adekile, D.A. Distant, D. O'Shaunessy, S. Lewis, N.B. Sumrani, A.J. Norin, M.O. Salifu. (2011) Impact of Human Leukocyte Antigen-DR Mismatch Status on Kidney Graft Survival in a Predominantly African-American Population Under the Newer Immunosuppressive Era. Transplantation Proceedings 43:5, 1544-1550
    CrossRef

  4. 4

    Keisuke Okita, Yasuko Matsumura, Yoshiko Sato, Aki Okada, Asuka Morizane, Satoshi Okamoto, Hyenjong Hong, Masato Nakagawa, Koji Tanabe, Ken-ichi Tezuka, Toshiyuki Shibata, Takahiro Kunisada, Masayo Takahashi, Jun Takahashi, Hiroh Saji, Shinya Yamanaka. (2011) A more efficient method to generate integration-free human iPS cells. Nature Methods 8:5, 409-412
    CrossRef

  5. 5

    Anil S. Paramesh, Rubin Zhang, John Baber, C. L. Yau, Douglas P. Slakey, Mary T. Killackey, Qing Ren, Karen Sullivan, Jean Heneghan, Sander S. Florman. (2010) The effect of HLA mismatch on highly sensitized renal allograft recipients. Clinical Transplantation 24:6, E247-E252
    CrossRef

  6. 6

    Gaetano Ciancio, Jeffrey J. Gaynor, Junichiro Sageshima, Linda Chen, David Roth, Warren Kupin, Giselle Guerra, Lissett Tueros, Alberto Zarak, Lois Hanson, Susan Ganz, Phillip Ruiz, William W. OʼNeill, Alan S. Livingstone, George W. Burke. (2010) Favorable Outcomes With Machine Perfusion and Longer Pump Times in Kidney Transplantation: A Single-Center, Observational Study. Transplantation 90:8, 882-890
    CrossRef

  7. 7

    J. M. Cecka. (2010) HLA matching for organ transplantation… Why not?. International Journal of Immunogenetics 37:5, 323-327
    CrossRef

  8. 8

    Vasilis Kosmoliaptsis, Linda D. Sharples, Afzal Chaudhry, Rachel J. Johnson, Susan V. Fuggle, David J. Halsall, J. Andrew Bradley, Craig J. Taylor. (2010) HLA class I amino acid sequence-based matching after interlocus subtraction and long-term outcome after deceased donor kidney transplantation. Human Immunology 71:9, 851-856
    CrossRef

  9. 9

    Francis Giraud, Pascal Marchand, Delphine Carbonnelle, Michael Sartor, François Lang, Muriel Duflos. (2010) Synthesis of N-aryl-3-(indol-3-yl)propanamides and their immunosuppressive activities. Bioorganic & Medicinal Chemistry Letters 20:17, 5203-5206
    CrossRef

  10. 10

    William J. Burlingham, Alejandro Muñoz del Rio, David Lorentzen, Hans W. Sollinger, John D. Pirsch, Ewa Jankowska-Gan, Anthony DʼAlessandro. (2010) HLA-A, -B, and -DR Zero-Mismatched Kidneys Shipped to the University of Wisconsin, Madison, 1993–2006: Superior Graft Survival Despite Longer Preservation Time. Transplantation 90:3, 312-318
    CrossRef

  11. 11

    Liise K. Kayler, Dorry L. Segev. (2010) The Impact of Nonidentical ABO Deceased Donor Kidney Transplant on Kidney Utilization. American Journal of Kidney Diseases 56:1, 95-101
    CrossRef

  12. 12

    Arun Amatya, Sandy Florman, Anil Paramesh, Anup Amatya, Jennifer McGee, Mary Killackey, Quing Ren, Brent Alper, Jean Heneghan, Eric Simon, Karen Sullivan, Douglas Slakey, Rubin Zhang. (2010) HLA-matched kidney transplantation in the era of modern immunosuppressive therapy. Dialysis & Transplantation 39:5, 193-198
    CrossRef

  13. 13

    Amir Almasi Hashiani, Abdolreza Rajaeefard, Jafar Hasanzadeh, Farzad Kakaei, Afshin Ghalehgolab Behbahan, Saman Nikeghbalian, Heshmatollah Salahi, Ali Bahador, Mehdi Salehipour, Seyed Ali Malek-Hosseini. (2010) Ten-year graft survival of deceased-donor kidney transplantation: a single-center experience. Renal Failure 32:4, 440-447
    CrossRef

  14. 14

    WAI H LIM, GRAEME R RUSS, STEPHEN P MCDONALD. (2010) Comparable transplant outcomes between local and shipped deceased-donor kidneys in Australia: Analysis of Australia and New Zealand Dialysis and Transplant Registry 1992-2007. Nephrology 15:1, 124-132
    CrossRef

  15. 15

    Craig J. Taylor, Vasilis Kosmoliaptsis, Linda D. Sharples, Davide Prezzi, C Helen Morgan, Timothy Key, Afzal N. Chaudhry, Irum Amin, Menna R. Clatworthy, Andrew J. Butler, Christopher J.E. Watson, J Andrew Bradley. (2010) Ten-Year Experience of Selective Omission of the Pretransplant Crossmatch Test in Deceased Donor Kidney Transplantation. Transplantation 89:2, 185-193
    CrossRef

  16. 16

    Eszter Panna Vamos, Marta Novak, Istvan Mucsi. (2009) Non-medical factors influencing access to renal transplantation. International Urology and Nephrology 41:3, 607-616
    CrossRef

  17. 17

    Rebeca Alonso-Arias, Beatriz Suárez-Alvarez, Antonio López-Vázquez, Marco A. Moro, José Baltar, Ernesto Gómez-Huertas, Teresa Ortega, Francisco Ortega, Carlos López-Larrea. (2009) CD127low Expression in CD4+CD25high T Cells as Immune Biomarker of Renal Function in Transplant Patients. Transplantation 88:Supplement, S85-S93
    CrossRef

  18. 18

    J. Martin, J. Worthington, S. Harris, S. Martin. (2009) The influence of class II transactivator and interleukin-6 polymorphisms on the production of antibodies to donor human leucocyte antigen mismatches in renal allograft recipients. International Journal of Immunogenetics 36:4, 235-239
    CrossRef

  19. 19

    S. Agarwal, N. Oak, J. Siddique, R. C. Harland, E. D. Abbo. (2009) Changes in Pediatric Renal Transplantation After Implementation of the Revised Deceased Donor Kidney Allocation Policy. American Journal of Transplantation 9:5, 1237-1242
    CrossRef

  20. 20

    M. Kamoun, J. H. Holmes, A. K. Israni, J. D. Kearns, V. Teal, W. P. Yang, S. E. Rosas, M. M. Joffe, H. Li, H. I. Feldman. (2008) HLA-A amino acid polymorphism and delayed kidney allograft function. Proceedings of the National Academy of Sciences 105:48, 18883-18888
    CrossRef

  21. 21

    Warren C. Breidenbach, N. Ruben Gonzales, Christina L. Kaufman, Martin Klapheke, Gordon R. Tobin, Vijay S. Gorantla. (2008) Outcomes of the First 2 American Hand Transplants at 8 and 6 Years Posttransplant. The Journal of Hand Surgery 33:7, 1039-1047
    CrossRef

  22. 22

    Fuad S. Shihab, Thomas H. Waid, David J. Conti, Harold Yang, Michael J. Holman, Laura C. Mulloy, Alice K. Henning, John Holman, M Roy First. (2008) Conversion From Cyclosporine to Tacrolimus in Patients at Risk for Chronic Renal Allograft Failure: 60-Month Results of the CRAF Study. Transplantation 85:9, 1261-1269
    CrossRef

  23. 23

    Cathi L Murphey, Thomas G Forsthuber. (2008) Trends in HLA antibody screening and identification and their role in transplantation. Expert Review of Clinical Immunology 4:3, 391-399
    CrossRef

  24. 24

    Eric Thervet, Dany Anglicheau, Christophe Legendre, Philippe Beaune. (2008) Role of Pharmacogenetics of Immunosuppressive Drugs in Organ Transplantation. Therapeutic Drug Monitoring 30:2, 143-150
    CrossRef

  25. 25

    Brian Susskind. (2007) Methods for histocompatibility testing in the early 21st century. Current Opinion in Organ Transplantation 12:4, 393-401
    CrossRef

  26. 26

    Selda Emre Aydingoz, Steven K. Takemoto, Brett W. Pinsky, Paolo R. Salvalaggio, Krista L. Lentine, Lisa Willoughby, Beverly Hoover, Thomas A. Burroughs, Mark A. Schnitzler, Ralph Graff. (2007) The impact of human leukocyte antigen matching on transplant complications and immunosuppression dosage. Human Immunology 68:6, 491-499
    CrossRef

  27. 27

    Delphine Carbonnelle, Morgane Lardic, Alexandra Dassonville, Elise Verron, Jean-Yves Petit, Muriel Duflos, François Lang. (2007) Synthetic N-pyridinyl(methyl)-indol-3-ylpropanamides as new potential immunosuppressive agents. European Journal of Medicinal Chemistry 42:5, 686-693
    CrossRef

  28. 28

    Alexander Kainz, Paul Perco, Bernd Mayer, Afschin Soleiman, Rudolf Steininger, Gert Mayer, Christa Mitterbauer, Christoph Schwarz, Timothy W. Meyer, Rainer Oberbauer. (2007) Gene-Expression Profiles and Age of Donor Kidney Biopsies Obtained Before Transplantation Distinguish Medium Term Graft Function. Transplantation 83:8, 1048-1054
    CrossRef

  29. 29

    Kayo Waki, Paul I. Terasaki. (2007) Paired kidney donation by shipment of living donor kidneys. Clinical Transplantation 21:2, 186-191
    CrossRef

  30. 30

    JogiRaju Tantravahi, Karl L. Womer, Bruce Kaplan. (2007) Why Hasn't Eliminating Acute Rejection Improved Graft Survival? *. Annual Review of Medicine 58:1, 369-385
    CrossRef

  31. 31

    Nicole A Weimert, Rita R Alloway. (2007) Renal Transplantation in High-Risk Patients. Drugs 67:11, 1603-1627
    CrossRef

  32. 32

    Ana Paula Gallo, Lea Bueno Lucas Silva, Marcello Franco, Emmanuel Almeida Burdmann, Valquiria Bueno. (2006) Tacrolimus in combination with FTY720 — an analysis of renal and blood parameters. International Immunopharmacology 6:13-14, 1919-1924
    CrossRef

  33. 33

    Chiao-Yin Sun, Chin-Chan Lee, Chiz-Tzung Chang, Cheng-Chih Hung, Mai-Szu Wu. (2006) Commercial cadaveric renal transplant: an ethical rather than medical issue. Clinical Transplantation 20:3, 340-345
    CrossRef

  34. 34

    Christelle Cantrelle, Chantal Laurens, Esmeralda Luciolli, Bernard Loty, Philippe Tuppin. (2006) Access to Kidney Transplantation in France of Non-French Patients and French Patients Living in Overseas Territories. Transplantation 81:8, 1147-1152
    CrossRef

  35. 35

    WAI H LIM, STEPHEN P MCDONALD, GRAEME R RUSS. (2006) Effect on graft and patient survival between shipped and locally transplanted well-matched cadaveric renal allografts in Australia over a 10-year period. Nephrology 11:1, 73-77
    CrossRef

  36. 36

    David N Rush. (2005) Can urinary monokine induced by interferon-γ accurately predict acute renal allograft rejection?. Nature Clinical Practice Nephrology 1:1, 10-11
    CrossRef

  37. 37

    Thomas Waid, . (2005) Tacrolimus as secondary intervention vs. cyclosporine continuation in patients at risk for chronic renal allograft failure. Clinical Transplantation 19:5, 573-580
    CrossRef

  38. 38

    Rebecca Press, Olveen Carrasquillo, Thomas Nickolas, Jai Radhakrishnan, Steven Shea, R Graham Barr. (2005) Race/Ethnicity, Poverty Status, and Renal Transplant Outcomes. Transplantation 80:7, 917-924
    CrossRef

  39. 39

    Carlton J. Young, Clifton Kew. (2005) Health Disparities in Transplantation: Focus on the Complexity and Challenge of Renal Transplantation in African Americans. Medical Clinics of North America 89:5, 1003-1031
    CrossRef

  40. 40

    SIMONE A JOOSTEN, YVO W J SIJPKENS, CEES VAN KOOTEN, LEENDERT C PAUL. (2005) Chronic renal allograft rejection: Pathophysiologic considerations. Kidney International 68:1, 1-13
    CrossRef

  41. 41

    Nzisa Mutinga, Daniel C. Brennan, Mark A. Schnitzler. (2005) Consequences of Eliminating HLA-B in Deceased Donor Kidney Allocation to Increase Minority Transplantation. American Journal of Transplantation 5:5, 1090-1098
    CrossRef

  42. 42

    J. Michael Cecka, Qiuheng Zhang, Elaine F. Reed. (2005) Preformed Cytotoxic Antibodies in Potential Allograft Recipients: Recent Data. Human Immunology 66:4, 343-349
    CrossRef

  43. 43

    S. Bunnapradist, A. Hong, B. Lee, S.K. Takemoto. (2005) Multivariate Analysis of the Effectiveness of Using Antibody Induction Therapy According to the Degree of HLA Mismatches. Transplantation Proceedings 37:2, 886-888
    CrossRef

  44. 44

    Delphine Carbonnelle, Frederic Ebstein, Catherine Rabu, Jean-Yves Petit, Marc Gregoire, Franois Lang. (2005) A new carboxamide compound exerts immuno-suppressive activity by inhibiting dendritic cell maturation. European Journal of Immunology 35:2, 546-556
    CrossRef

  45. 45

    J. Michael Cecka, Elaine F. Reed. 2005. ABO, Tissue Typing, and Cross-match Incompatibility in Liver Transplantation. , 1199-1209.
    CrossRef

  46. 46

    K. E. McKenna. (2004) Iatrogenic skin cancer: induction by psoralen/ultraviolet A and immunosuppression of organ transplant recipients. Photodermatology, Photoimmunology and Photomedicine 20:6, 289-296
    CrossRef

  47. 47

    Steve Takemoto, Friedrich K. Port, Frans H.J. Claas, Rene J. Duquesnoy. (2004) HLA matching for kidney transplantation. Human Immunology 65:12, 1489-1505
    CrossRef

  48. 48

    Xuanming Su, Stefanos A. Zenios, Harini Chakkera, Edgar L. Milford, Glenn M. Chertow. (2004) Diminishing Significance of HLA Matching in Kidney Transplantation. American Journal of Transplantation 4:9, 1501-1508
    CrossRef

  49. 49

    C. Ponticelli. (2004) Renal transplantation 2004: where do we stand today?. Nephrology Dialysis Transplantation 19:12, 2937-2947
    CrossRef

  50. 50

    L. Zhou, J. Vandersteen, L. Wang, T. Fuller, M. Taylor, B. Palais, C.T. Wittwer. (2004) High-resolution DNA melting curve analysis to establish HLA genotypic identity. Tissue Antigens 64:2, 156-164
    CrossRef

  51. 51

    Christopher F Bryan, Wida S Cherikh, Yulin Cheng, Mark I Aeder, Nicolas A Muruve, Paul W Nelson, Charles F Shield, Bradley A Warady, Franz T Winklhofer. (2004) ABO blood group influences a candidate's likelihood of receiving an HLA zero antigen mismatch kidney. Clinical Transplantation 18:s12, 55-60
    CrossRef

  52. 52

    Nauman Siddiqi, Maureen A. McBride, Sundaram Hariharan. (2004) Similar risk profiles for post-transplant renal dysfunction and long-term graft failure: UNOS/OPTN database analysis. Kidney International 65:5, 1906-1913
    CrossRef

  53. 53

    Simone A Joosten, Yvo W.J Sijpkens, Cees van Kooten, Leendert C Paul. (2004) Chronic rejection in renal transplantation. Transplantation Reviews 18:2, 86-95
    CrossRef

  54. 54

    Roberts, John P., Wolfe, Robert A., Bragg-Gresham, Jennifer L., Rush, Sarah H., Wynn, James J., Distant, Dale A., Ashby, Valarie B., Held, Philip J., Port, Friedrich K., . (2004) Effect of Changing the Priority for HLA Matching on the Rates and Outcomes of Kidney Transplantation in Minority Groups. New England Journal of Medicine 350:6, 545-551
    Full Text

  55. 55

    Christian Hiesse, Fabienne Pessione, Didier Houssin. (2004) The case to abandon human leukocyte antigen matching for kidney allocation: Would it be wise to throw out the baby with the bathwater?. Transplantation 77:4, 623-626
    CrossRef

  56. 56

    (2004) Foreign Article Review: WOFIE synergizes with calcineurin-inhibitor treatment and early steroid withdrawal in kidney transplantation.. Nihon Shoni Jinzobyo Gakkai Zasshi 17:2, 153-154
    CrossRef

  57. 57

    Gabriel M Danovitch, J.Michael Cecka. (2003) Allocation of deceased donor kidneys: past, present, and future. American Journal of Kidney Diseases 42:5, 882-890
    CrossRef

  58. 58

    J. Michael Cecka. (2003) Interview with Dr Paul Terasaki. American Journal of Transplantation 3:9, 1047-1051
    CrossRef

  59. 59

    Scott M. Palmer, Stavros Garantziotis, Nancy L. Reinsmoen. (2003) Clinical significance of anti human leukocyte antigen antibodies in lung transplantation. Current Opinion in Organ Transplantation 8:3, 217-221
    CrossRef

  60. 60

    Sundaram Hariharan, Maureen A. McBride, Eric P. Cohen. (2003) Evolution of Endpoints for Renal Transplant Outcome. American Journal of Transplantation 3:8, 933-941
    CrossRef

  61. 61

    Radermacher, Jörg, Mengel, Michael, Ellis, Sebastian, Stuht, Stephan, Hiss, Markus, Schwarz, Anke, Eisenberger, Ute, Burg, Michael, Luft, Friedrich C., Gwinner, Wilfried, Haller, Hermann, . (2003) The Renal Arterial Resistance Index and Renal Allograft Survival. New England Journal of Medicine 349:2, 115-124
    Full Text

  62. 62

    Robert S. Gaston, Gabriel M. Danovitch, Patricia L. Adams, James J. Wynn, Robert M. Merion, Mark H. Deierhoi, Robert A. Metzger, J. Michael Cecka, William E. Harmon, Alan B. Leichtman, Aaron Spital, Emily Blumberg, Charles A. Herzog, Robert A. Wolfe, Dolly B. Tyan, John Roberts, Richard Rohrer, Friedrich K. Port, Francis L. Delmonico. (2003) The Report of a National Conference on the Wait List for Kidney Transplantation. American Journal of Transplantation 3:7, 775-785
    CrossRef

  63. 63

    ALAN CASS, JOAN CUNNINGHAM, PAUL SNELLING, ZHIQIANG WANG, WENDY HOY. (2003) Renal Transplantation for Indigenous Australians: Identifying the Barriers to Equitable Access. Ethnicity & Health 8:2, 111-119
    CrossRef

  64. 64

    Claudio Ponticelli, Margarita Villa. (2003) Risk factors for late kidney allograft failure. Kidney International 63:5, 1961-1961
    CrossRef

  65. 65

    Bettina Dresske, Nicholas Zavazava, Stefan Jenisch, Beate Exner, Philine Lenz, Nour Eddine El Mokhtari, Bernd Kremer, Fred Faendrich. (2003) WOFIE synergizes with calcineurin-inhibitor treatment and early steroid withdrawal in kidney transplantation1. Transplantation 75:8, 1286-1291
    CrossRef

  66. 66

    Robert S. Gaston, Denise Y. Alveranga, Bryan N. Becker, Dale A. Distant, Philip J. Held, Jennifer L. Bragg-Gresham, Abhinav Humar, Alan Ting, James J. Wynn, Alan B. Leichtman. (2003) Kidney and pancreas transplantation. American Journal of Transplantation 3:s4, 64-77
    CrossRef

  67. 67

    Christopher F. Bryan, Kevin M. Harrell, Stanley I. Mitchell, Bradley A. Warady, Mark I. Aeder, Alan M. Luger, Daniel Murillo, Nicolas A. Muruve, Paul W. Nelson, Charles F. Shield, III. (2003) HLA Points Assigned in Cadaveric Kidney Allocation Should Be Revisited: An Analysis of HLA Class II Molecularly Typed Patients and Donors. American Journal of Transplantation 3:4, 459-464
    CrossRef

  68. 68

    Rene J. Duquesnoy, Steve Takemoto, Peter de Lange, Ilias I. N. Doxiadis, Geziena M. Th. Schreuder, Guido G. Persijn, Frans H. J. Claas. (2003) HLAmatchmaker: a molecularly based algorithm for histocompatibility determination. III. Effect of matching at the HLA-A,B amino acid triplet level on kidney transplant survival1. Transplantation 75:6, 884-889
    CrossRef

  69. 69

    Rene J. Duquesnoy, Judy Howe, Steve Takemoto. (2003) HLAmatchmaker: a molecularly based algorithm for histocompatibility determination. IV. An alternative strategy to increas the number of compatible donors for highly sensitized patients1. Transplantation 75:6, 889-897
    CrossRef

  70. 70

    Aloke K. Mandal, Jon J. Snyder, David T. Gilbertson, Allan J. Collins, John R. Silkensen. (2003) Does cadaveric donor renal transplantation ever provide better outcomes than live-donor renal transplantation?1,2. Transplantation 75:4, 494-500
    CrossRef

  71. 71

    Kazunari Yoshida, Tadao Endo, Takeshi Saito, Masatsugu Iwamura, Masae Ikeda, Koju Kamata, Koshi Sato, Shiro Baba. (2002) Factors contributing to long graft survival in non-heart-beating cadaveric renal transplantation in Japan: a single-center study at Kitasato University. Clinical Transplantation 16:6, 397-404
    CrossRef

  72. 72

    Lorita M. Rebellato, Angelo N. Arnold, Karen M. Bozik, Carl E. Haisch. (2002) HLA matching and the united network for organ sharing allocation system: impact of HLA matching on african-american recipients of cadaveric kidney transplants. Transplantation 74:11, 1634-1636
    CrossRef

  73. 73

    Robert J. Postlethwaite, Rachel J. Johnson, Samantha Armstrong, Mark A. Belger, Susan V. Fuggle, Susan Martin, Derek Middleton, Terry C. Ray, Susan P. A. Rigden, Kate Verrier-Jones, Peter J. Morris, . (2002) The outcome of pediatric cadaveric renal transplantation in the UK and Eire. Pediatric Transplantation 6:5, 367-377
    CrossRef

  74. 74

    Sita Gourishankar, Philip F. Halloran. (2002) Late deterioration of organ transplants: a problem in injury and homeostasis. Current Opinion in Immunology 14:5, 576-583
    CrossRef

  75. 75

    Mark D. Stegall, Patrick G. Dean, Maureen A. McBride, James J. Wynn. (2002) Survival of mandatorily shared cadaveric kidneys and their paybacks in the zero mismatch era. Transplantation 74:5, 670-675
    CrossRef

  76. 76

    Barbara A. Bresnahan, Christopher P. Johnson, Matthew J. McIntosh, Donald Stablein, Sundaram Hariharan. (2002) A Comparison Between Recipients Receiving Matched Kidney and Those Receiving Mismatched Kidney from the Same Cadaver Donor. American Journal of Transplantation 2:4, 366-372
    CrossRef

  77. 77

    J. Michael Cecka, Steven K. Takemoto, David W. Gjertson. (2002) Putting One Objection to HLA Matching on Ice. American Journal of Transplantation 2:4, 295-296
    CrossRef

  78. 78

    John S. Thompson, Leroy Thacker, James Byrne. (2002) Prospective trial of a predictive algorithm to transplant cadaver kidneys into highly sensitized patients1. Transplantation 73:8, 1274-1280
    CrossRef

  79. 79

    Christoph Schwarz, Rainer Oberbauer. (2002) The future role of target of rapamycin inhibitors in renal transplantation. Current Opinion in Urology 12:2, 109-113
    CrossRef

  80. 80

    (2002) Shipped and Locally Transplanted Renal Allografts. New England Journal of Medicine 346:9, 708-709
    Full Text

  81. 81

    Carlton J. Young, Robert S. Gaston. (2002) African Americans and Renal Transplantation: Disproportionate Need, Limited Access, and Impaired Outcomes. The American Journal of the Medical Sciences 323:2, 94-99
    CrossRef

  82. 82

    David A. Laskow, Nasimul Ahsan. (2002) Editorials: Dialysis Access Failure: An Indication for Immediate Kidney Transplantation. Seminars in Dialysis 15:1, 1-2
    CrossRef

  83. 83

    Robert S. Gaston. (2002) Addressing Minority Issues in Renal Transplantation: Is More Equitable Access an Achievable Goal?. American Journal of Transplantation 2:1, 1-3
    CrossRef

  84. 84

    Petersdorf, Effie W., Hansen, John A., Martin, Paul J., Woolfrey, Ann, Malkki, Mari, Gooley, Theodore, Storer, Barry, Mickelson, Eric, Smith, Anajane, Anasetti, Claudio, . (2001) Major-Histocompatibility-Complex Class I Alleles and Antigens in Hematopoietic-Cell Transplantation. New England Journal of Medicine 345:25, 1794-1800
    Full Text

  85. 85

    Arthur J. Matas, Francis L. Delmonico. (2001) Transplant Kidneys Sooner: Discard Fewer Kidneys. American Journal of Transplantation 1:4, 301-304
    CrossRef

  86. 86

    Mange, Kevin C., Cherikh, Wida S., Maghirang, Jude, Bloom, Roy D., . (2001) A Comparison of the Survival of Shipped and Locally Transplanted Cadaveric Renal Allografts. New England Journal of Medicine 345:17, 1237-1242
    Full Text

  87. 87

    Thomas M. Williams. (2001) Human Leukocyte Antigen Gene Polymorphism and the Histocompatibility Laboratory. The Journal of Molecular Diagnostics 3:3, 98-104
    CrossRef

  88. 88

    Sita Gourishankar, Philip Halloran. (2001) Long-term immunosuppressive strategy in the new millennium of renal transplantation. Current Opinion in Organ Transplantation 6:2, 175-182
    CrossRef

  89. 89

    Xue-Zhong Yu, Paul Carpenter, Claudio Anasetti. (2001) Advances in transplantation tolerance. The Lancet 357:9272, 1959-1963
    CrossRef