| 344) dementia screening battery to identify at-risk individuals with DS in primary care s |
| 345) s of the disease, as well as detecting at-risk individuals. |
| 346) ' S309-CAR-NK cells for treatment in high-risk individuals as well as provide an alt |
| 347) media were significantly enriched in high-risk individuals. |
| 348) implant interface in all groups, only low-risk individuals exhibited suppression of |
| 349) 246 AD risk genes have not been identified as AD |
| 350) We identified 342 putative AD risk genes in 203 risk regions spanning 50 |
| 351) for developing therapeutics targeting AD risk genes or risk variants to influence A |
| 352) -depth functional analyses showed that AD risk genes were overrepresented in AD-rela |
| 353) erging from the literature, recognises at-risk populations and highlights opportunit |
| 354) The majority were from low-risk populations. |
| 355) -2019) acute/early infections in three at risk populations - MSM, high risk women (H |
| 356) ing in a greater number of vulnerable and risk populations of tuberculosis. |
| 357) hesized that a population-level polygenic risk score (PRS) can explain phenotypic va |
| 358) ed the predictive accuracy of a polygenic risk score (PRS) derived from a European a |
| 359) In the second stage, we use the baseline risk score from the first stage as a singl |
| 360) We find that the baseline risk score modifies the relative and absol |
| 361) Cardiac patients are at an increased risk to develop a severe illness if infect |
| 362) ressor exposures and personal factors and risk to foster methods for occupational cu |
| 363) by low bone mineral density and increased risk to osteoporotic fractures. |
| 364) included a plan to mitigate psychological risk to the researcher-suggesting a need f |
| 365) anders, with the aim of identifying novel risk variants associated with asthma susce |
| 366) Moreover, the risk variants underlying GWAS AD-associati |
| 367) r predicting both disease genes and their risk variants. |
| 368) se comparisons can identify the universal risk variants. |
| 369) associated with increasing numbers of at-risk alleles. |
| 370) The two APOL1 renal risk alleles (RRA) genotypes were associat |
| 371) om heterozygous to homozygous for disease risk alleles or non-risk alleles using a t |
| 372) , road test data analysis, system failure risk assessment, and safety effectiveness |
| 373) hat can be used to assist with diagnosis, risk assessment, and tracking of illness s |
| 374) insufficient knowledge about genetics and risk assessment, lack of access to genetic |
| 375) Animal models for risk-based decision making can increase me |
| 376) Animal models for risk-based decision making have been descr |
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