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1                                              MGUS is a premalignant disorder frequently encountered i
2                                              MGUS is considered an obligate precursor to several lymp
3                                              MGUS patients frequently mount a humoral and cellular im
4                                              MGUS patients had an 8.01-fold (5.40-11.43) increased ri
5                                              MGUS should be considered as a potential etiology of aut
6                                              MGUS was identified in 694 (3.2 percent) of these person
7                                              MGUS was present in 100.0% (87.2%-100.0%), 98.3% (90.8%-
8 n-based data from Sweden, we identified 4458 MGUS patients, 17505 population-based controls, and firs
9 ne mineral density (vBMD) measurements in 50 MGUS patients (20 females, 30 males; mean +/- SEM age, 7
10 omography imaging of the distal radius in 50 MGUS patients and 100 age-, gender-, and body mass index
11 drome (OFD1) had response in 6 of 29 (20.6%) MGUS patients but 0 of 11 newly diagnosed MM patients.
12 ne-hundred eleven relatives of 232 MM and 97 MGUS probands were studied.
13          The SIR for glaucoma was 1.60 after MGUS, 1.76 after WM and 2.18 after AL amyloidosis.
14 ct was significantly increased to 1.80 after MGUS, 1.70 after MM, 1.85 after WM and 2.31 after AL amy
15  or Hodgkin lymphoma was not increased among MGUS relatives.
16 ives of MM (RR, 2.0; 95% CI, 1.4 to 2.8) and MGUS probands (RR, 3.3; 95% CI, 2.1 to 4.8).
17 quent to both MM (SIR = 2.22; 1.74-2.80) and MGUS (SIR = 3.30; 2.76-3.90).
18 Associations between pesticide exposures and MGUS prevalence were assessed by logistic regression mod
19 imately 25 cluster, miR-181a and b in MM and MGUS samples with respect to healthy PCs.
20  black) with a discharge diagnosis of MM and MGUS, respectively.
21 l evaluation, CBC and CRP every 3 months and MGUS as usually recommended.
22 r the increased risk of multiple myeloma and MGUS in blacks is related to socioeconomic status, genet
23 y had prostate cancer, multiple myeloma, and MGUS.
24 re expressed by the majority of myelomas and MGUS tumors and are a potential immune target.
25                                           As MGUS prevalence is around 3% at 60 years and close to 10
26 tic schema, they are frequently diagnosed as MGUS.
27 for MGUS; the aim of the study was to assess MGUS risk in relation to obesity and race.
28        In the present study, an asymptomatic MGUS stage consistently preceded MM.
29 ways preceded by a premalignant asymptomatic MGUS stage.
30 isk by type of first-degree relative, age at MGUS (above/below 65 years), or sex.
31 vation that a low M-protein concentration at MGUS diagnosis was associated with poorer MM survival ma
32 , low M-protein concentration (<0.5 g/dL) at MGUS diagnosis was associated with poorer MM survival (H
33 f 214 patients with MM, 27% were found to be MGUS-L.
34                                      Because MGUS is already a genetically complex lesion, applicatio
35 n active multiple myeloma clone and a benign MGUS clone, and thus provides a unique model to assess t
36  no differences in clinical outcomes between MGUS patients and KT controls.
37 ultiple myeloma in patients with light-chain MGUS was 0.3% (0.1-0.8) per 100 person-years.
38                    Prevalence of light-chain MGUS was 0.8% (95% CI 0.7-0.9), contributing to an overa
39                                  Light-chain MGUS was defined as an abnormal free light-chain ratio w
40    30 (23%) of 129 patients with light-chain MGUS were diagnosed with renal disease.
41 renal disorders in patients with light-chain MGUS.
42 light chain and met criteria for light-chain MGUS.
43  corresponding precursor entity, light-chain MGUS.
44                                 In contrast, MGUS, but not MM, patients generate high-titer anti-MICA
45                        Relative to controls, MGUS patients had decreased aBMD at the femoral neck (P
46                      Compared with controls, MGUS patients had both significantly higher cortical por
47 e disorders for light-chain and conventional MGUS and assessed incidence of renal disorders in patien
48 g the light-chain equivalent of conventional MGUS and posing a risk of progression to light-chain mul
49 pression that was diagnostic of conventional MGUS.
50                                 To determine MGUS clone susceptibly to therapy, future studies might
51        Thirty-nine (8.1%) subjects developed MGUS after KT.
52 0-fold (2.3-170) elevated risk of developing MGUS, MM, and LPL/WM, respectively.
53                          By electrophoresis, MGUS was detected in 55 (6%) relatives, and immunofixati
54 sed cohort, previously assembled to estimate MGUS prevalence, of 21,463 residents of Olmsted County,
55 n epidemiology and risk factors for familial MGUS and myeloma, the risk of lymphoproliferative disord
56 , represented the only predictive factor for MGUS development.
57 strongest molecular defined risk factors for MGUS, MM, and WM.
58 urrent prognostic and therapeutic models for MGUS and MM.
59     Because treatment is not recommended for MGUS, appropriate therapy is commonly withheld.
60 ranslated into a 2.4-fold increased risk for MGUS in Ranch Hand veterans than comparison veterans aft
61                                    Risks for MGUS were generally of similar magnitude.
62 9 years) of similar socioeconomic status for MGUS; the aim of the study was to assess MGUS risk in re
63           In conclusion, routine testing for MGUS before transplantation is not prognostic nor a cont
64 study conducted in 2013 to 2014, testing for MGUS in serum specimens collected and stored in 2002 by
65 d CCN1 was associated with a longer time for MGUS/AMM to progress to overt MM.
66                                  Eighty-four MGUS cases developed a lymphoid disorder, representing a
67 expression is increased on plasma cells from MGUS patients compared with normal donors, whereas MM pa
68 sion and profiled CD138(+) plasma cells from MGUS, SMM, and MM specimens; human myeloma cell lines; a
69 reened for reactivity with paraproteins from MGUS, MM, and WM patients.
70 way are associated with the progression from MGUS to MM and raise the possibility that anti-MICA mono
71 e mechanisms underlying the progression from MGUS to MM are incompletely understood but include the s
72  The average annual risk of progression from MGUS to multiple myeloma is 0.5% to 1.0%.
73 ylation of the genome at the transition from MGUS to presentation myeloma.
74 uding IgM cases, 0/14), and immunoglobulin G MGUS (0/9) patients as well as healthy donors (0/40; P <
75 oratory evaluation revealed immunoglobulin G MGUS in all 4 patients.
76 of 39 (3.9%) blacks and 21 (2.1%) whites had MGUS.
77 an 50 years (n = 555), 38 were found to have MGUS, yielding a prevalence of 6.8% (95% CI, 5.0%-9.3%).
78 follow-up of individuals diagnosed as having MGUS depending on risk stratification.
79 .7%) had previously been diagnosed as having MGUS.
80               However, studies comparing how MGUS and multiple myeloma plasma cell clones respond to
81                     We aimed to identify how MGUS and multiple myeloma plasma cell clones responded t
82           Relatives of patients with IgG/IgA MGUS had a 4.0-fold (1.7-9.2), 2.9-fold (1.7-4.9), and 2
83  gammopathy multiple myeloma with IgG or IgA MGUS clones were subsequently identified from the three
84 k MGUS patients (>/= 1.5 g/dL and/or non-IgG MGUS) were more likely to be optimally followed (81% vs
85 in 97 of 104 (93%) WM and 13 of 24 (54%) IgM MGUS patients and was either absent or rarely expressed
86 P as a widely present mutation in WM and IgM MGUS patients using highly sensitive and specific AS-PCR
87 iation between peripheral neuropathy and IgM MGUS with characteristic clinical, electrophysiology and
88 8q11-18q23] progressively increased from IgM MGUS and smoldering WM vs symptomatic WM (18% vs 20% and
89 notypic profiles for clonal B cells from IgM MGUS, smoldering, and symptomatic WM patients.
90              Real-time AS-PCR identified IgM MGUS patients progressing to WM and showed a high rate o
91  clonal B cells that, albeit benign (ie, IgM MGUS and smoldering WM), already harbor the phenotypic a
92     The finding of this mutation in many IgM MGUS patients suggests that MYD88 L265P may be an early
93   Risk was confined to IgG/IgA, while no IgM MGUS patients developed AML/MDS; patients with monoclona
94                             Relatives of IgM MGUS patients had 5.0-fold (1.1-23) increased CLL risk a
95 gammopathy of undetermined significance (IgM MGUS).
96 cells from newly diagnosed patients with IgM MGUS (n = 22), smoldering (n = 16), and symptomatic WM (
97 1q and 4q when patients with WM and with IgM MGUS were both considered affected; nonparametric linkag
98  for AML/MDS following IgG/IgA (but not IgM) MGUS, and the highest risk associated with M-protein con
99  diagnostic tool for patients with WM or IgM-MGUS.
100 gammopathy of undetermined significance (IgM-MGUS), 84 with splenic marginal zone lymphoma (SMZL), an
101                              Compared to IgM-MGUS patients with wild-type MYD88, those carrying MYD88
102        During follow-up, 9 patients with IgM-MGUS progressed to WM or to marginal zone lymphoma.
103 100%) patients with WM, 36/77 (47%) with IgM-MGUS, 5/84 (6%) with SMZL, and 3/52 (4%) with B-CLPD.
104           The frequency of Amp1q21 was 0% in MGUS, 45% in SMM, 43% in newly diagnosed MM, and 72% in
105 marks the clonogenic CD138(-) compartment in MGUS.
106                                     Death in MGUS patients was not associated with progression of the
107 P < .01) were all significantly decreased in MGUS patients, suggestive of impaired bone formation.
108 P < .05) also were significantly elevated in MGUS patients.
109 GE proteins is stronger and more frequent in MGUS compared with myeloma with a predominantly CD45RA(-
110  supports a role for susceptibility genes in MGUS.
111 antigenic targets of spontaneous immunity in MGUS differ from MM.
112 the occurrence of fractures, is increased in MGUS.
113 oma also may be associated with bone loss in MGUS.
114 t evidence of altered bone microstructure in MGUS and suggest that cytokines elevated in osteolytic m
115  plasmocytes from MM patients but neither in MGUS patients nor in healthy individuals, suggesting tha
116 ied in MM subjects and cell lines but not in MGUS subjects or healthy PCs.
117 e confirmed T-cell responses against OFD1 in MGUS and observed down-regulation of GLI1/PTCH1 and p-be
118 ed fracture risk, which has been reported in MGUS patients.
119 ntified, with specific antibody responses in MGUS.
120  explain the increased fracture risk seen in MGUS patients.
121 approaches to enhance immune surveillance in MGUS and to break down immune tolerance in MM.
122  in signal transduction and tumorigenesis in MGUS and MM.
123            Each SNP independently influenced MGUS risk with statistically significant associations (P
124 mong residents of Olmsted County, Minnesota, MGUS was found in 3.2 percent of persons 50 years of age
125 rvals (CIs) for the relationship between MM, MGUS, and specific prior medical conditions.
126 ated conditions might act as triggers for MM/MGUS development.
127 Among first-degree relatives of a nationwide MGUS cohort, we found elevated risks of MGUS, MM, LPL/WM
128                                  MM, but not MGUS, patients harbor circulating sMICA, which triggers
129                          Genetic analyses of MGUS cells have provided evidence that it is a genetical
130  and glaucoma and tested the associations of MGUS, MM, WM and AL amyloidosis with subsequent eye dise
131 current body of literature on the biology of MGUS and provide a rationale for the improved identifica
132                                 The cause of MGUS is largely unknown.
133 are few reports about the clinical course of MGUS or risk profile in long-term immunosuppressed patie
134 nt questions that arise during the course of MGUS.
135 olyclonal phase preceding the development of MGUS.
136                              At diagnosis of MGUS, the average age was 52 +/- 9.2 years, and 23% of t
137  credited to hematologists, the discovery of MGUS is most often incidental and made by nonhematologis
138     To better define the skeletal effects of MGUS, we performed aBMD and high-resolution peripheral q
139         Age-adjusted prevalence estimates of MGUS were compared with MGUS prevalence in 9469 men from
140 tion, its role in fostering the evolution of MGUS or SMM into MM is yet to be proven.
141                         The 2-fold excess of MGUS among blacks compared with whites of similar socioe
142             Although the genetic features of MGUS or SMM cells at baseline may predict disease risk,
143 ty to SOX2 inhibits the clonogenic growth of MGUS cells in vitro.
144 risk factors could improve identification of MGUS patients at high risk for progression.
145 idence supports bidirectional interaction of MGUS cells with surrounding cells in the bone marrow nic
146                              Interactions of MGUS cells with immune cells, bone cells, and others in
147  than MM patients without prior knowledge of MGUS (median survival, 2.1 years), although MM patients
148                           Prior knowledge of MGUS among MM patients.
149     Patients with MM with prior knowledge of MGUS had better MM survival, suggesting that earlier tre
150 atients with (vs without) prior knowledge of MGUS had more comorbidities (P < .001).
151     Patients with MM with prior knowledge of MGUS had significantly (HR, 0.86; 95% CI, 0.77-0.96; P <
152    Among MM patients with prior knowledge of MGUS, low M-protein concentration (<0.5 g/dL) at MGUS di
153 nts with vs those without prior knowledge of MGUS.
154 s for improving individualized management of MGUS and SMM patients, as well as the potential for deve
155         Recent advances in mouse modeling of MGUS suggest that the clinical dormancy of the clone may
156                                Occurrence of MGUS was not influenced by age and sex.
157          Prevalence and clinical outcomes of MGUS in kidney transplant (KT) recipients have been prev
158 NA damage, contribute to the pathogenesis of MGUS and MM.
159                In summary, the prevalence of MGUS among pesticide applicators was twice that in a pop
160 ay contribute to the increased prevalence of MGUS among relatives of probands with MGUS, MM, and othe
161  determined longitudinally the prevalence of MGUS and characterized patterns of monoclonal immunoglob
162 how that there is an increased prevalence of MGUS in blood relatives of persons with lymphoproliferat
163                            The prevalence of MGUS in relatives increased with age (1.9%, 6.9%, 11.6%,
164                            The prevalence of MGUS in relatives was compared with population-based rat
165 om Minnesota, the age-adjusted prevalence of MGUS was 1.9-fold (95% CI, 1.3- to 2.7-fold) higher amon
166 he biology and probability of progression of MGUS and SMM.
167 ed risk of MGUS in first-degree relatives of MGUS or MM patients implies shared environment and/or ge
168 red with relatives of controls, relatives of MGUS patients had increased risk of MGUS (relative risk
169 malignancies among first-degree relatives of MGUS patients.
170 tives of MGUS patients had increased risk of MGUS (relative risk [RR] = 2.8; 1.4-5.6), multiple myelo
171 Analyses of populations at increased risk of MGUS also suggest the possible existence of a polyclonal
172 s (n = 58387) with the aim to assess risk of MGUS and lymphoproliferative malignancies among first-de
173                        The increased risk of MGUS in first-degree relatives of MGUS or MM patients im
174 etection methods, there was a higher risk of MGUS in relatives (age-adjusted risk ratio [RR], 2.6; 95
175                                      Risk of MGUS measured by prevalence, odds ratios (ORs), and 95%
176 (95% CI, 1.1- to 5.3-fold) increased risk of MGUS prevalence was observed among users of the chlorina
177 erans have a significantly increased risk of MGUS, supporting an association between Agent Orange exp
178 ependently associated with an excess risk of MGUS.
179 wide MGUS cohort, we found elevated risks of MGUS, MM, LPL/WM, and CLL, supporting a role for germlin
180 DNA expression library to screen the sera of MGUS patients to identify tumor-associated antigens.
181                                   Studies of MGUS revealed that some samples shared biologic features
182 marrow of MM patients compared with those of MGUS patients and control subjects.
183 dy suggests that routine annual follow-up of MGUS may not be required in low-risk MGUS.
184 gnosing and conducting clinical follow-up of MGUS on MM survival is unclear.
185 f 116 patients, 69% had optimal follow-up of MGUS.
186     To examine the impact of these 7 SNPs on MGUS, we analyzed two case-control series totaling 492 c
187  Emerging evidence from molecular studies on MGUS and SMM, involving cytogenetics, gene-expression pr
188 hieved with anti-multiple myeloma therapy on MGUS (which we defined as M2) and multiple myeloma (M1)
189 ividuals from all backgrounds; however, only MGUS, MM, and WM patients who were HSP90-SUMO1 carriers
190 degree relatives of multiple myeloma (MM) or MGUS patients.
191 (95% CI 0.7-0.9), contributing to an overall MGUS prevalence of 4.2% (3.9-4.5).
192              The crude prevalence of overall MGUS was 7.1% (34 of 479) in Ranch Hand veterans and 3.1
193                               In 3 patients, MGUS underwent malignant transformation 24 to 144 months
194 tion of earlier stages, which we term as pre-MGUS Analyses of populations at increased risk of MGUS a
195 phoproliferative disorders and pretransplant MGUS.
196 as NPCs transition to MM, create a high-risk MGUS gene signature, and subgroup International Staging
197                                    High-risk MGUS patients (>/= 1.5 g/dL and/or non-IgG MGUS) were mo
198 for the improved identification of high-risk MGUS patients who may be appropriate for novel clinical
199 M, which comprised the basis for a high-risk MGUS signature.
200 timal frequency of monitoring in higher-risk MGUS patients.
201 w-up of MGUS may not be required in low-risk MGUS.
202                                    Secondary MGUS was more common in patients after stem cell transpl
203 ts with MM, 128 (6.6%) developed a secondary MGUS, at a median of 12 months from the diagnosis of MM.
204 erior in MM patients who developed secondary MGUS compared with the rest of the cohort (73 vs 38 mont
205             The median duration of secondary MGUS was 5.9 months.
206  time of onset and the duration of secondary MGUS, as well as failure to resolve spontaneously, had a
207 y, characteristics, and outcome of secondary MGUS.
208 nal gammopathy of undetermined significance (MGUS) (n = 6), and normal donors (n = 6).
209 nal gammopathy of undetermined significance (MGUS) and healthy individuals is presented.
210 nal gammopathy of undetermined significance (MGUS) and multiple myeloma (MM) comprise heterogeneous d
211 nal gammopathy of undetermined significance (MGUS) and smoldering multiple myeloma (SMM), suggesting
212 nal gammopathy of undetermined significance (MGUS) and smoldering myeloma.
213 nal gammopathy of undetermined significance (MGUS) are at increased fracture risk, and we have previo
214 nal gammopathy of undetermined significance (MGUS) has been observed in case reports and in smaller s
215 nal gammopathy of undetermined significance (MGUS) have increased cortical bone porosity and reduced
216 nal gammopathy of undetermined significance (MGUS) is a common disorder of aging and a precursor lesi
217 nal gammopathy of undetermined significance (MGUS) is a plasma cell dyscrasia and precursor to multip
218 nal gammopathy of undetermined significance (MGUS) is a premalignant plasma cell dyscrasia that consi
219 nal gammopathy of undetermined significance (MGUS) is a premalignant plasma-cell proliferative disord
220 nal gammopathy of undetermined significance (MGUS) is an asymptomatic plasma cell proliferative disor
221 nal gammopathy of undetermined significance (MGUS) is an asymptomatic premalignant plasma cell disord
222 nal gammopathy of undetermined significance (MGUS) is associated with a long-term risk of progression
223 nal gammopathy of undetermined significance (MGUS) is defined by expression of heavy-chain immunoglob
224 nal gammopathy of undetermined significance (MGUS) is increased in first-degree relatives of multiple
225 nal gammopathy of undetermined significance (MGUS) is present in approximately 2% of individuals age
226 nal gammopathy of undetermined significance (MGUS) is the most commonly found monoclonal gammopathy a
227 nal gammopathy of undetermined significance (MGUS) is unknown.
228 nal gammopathy of undetermined significance (MGUS) is, in many ways, a unique hematologic entity.
229 nal gammopathy of undetermined significance (MGUS) or asymptomatic multiple myeloma (AMM).
230 nal gammopathy of undetermined significance (MGUS) or smoldering myeloma (SMM).
231 nal gammopathy of undetermined significance (MGUS) patients diagnosed between 1986 and 2005.
232 nal gammopathy of undetermined significance (MGUS) patients.
233 nal gammopathy of undetermined significance (MGUS) referred to our hospital for acute painless drop o
234 nal gammopathy of undetermined significance (MGUS) remain undetermined.
235 nal gammopathy of undetermined significance (MGUS) represents a precursor lesion to myeloma (MM).
236 nal gammopathy of undetermined significance (MGUS) than with multiple myeloma.
237 nal gammopathy of undetermined significance (MGUS) to lymphoplasmacellular and myeloid malignancies i
238 nal gammopathy of undetermined significance (MGUS) to multiple myeloma (MM) is driven by defects in d
239 nal gammopathy of undetermined significance (MGUS) to multiple myeloma (MM) is thought to be associat
240 nal gammopathy of undetermined significance (MGUS) to multiple myeloma (MM) such as c-MYC have downst
241 nal gammopathy of undetermined significance (MGUS) to multiple myeloma are unclear but may include th
242 nal gammopathy of undetermined significance (MGUS), a precursor to multiple myeloma (MM), is one of t
243 nal gammopathy of undetermined significance (MGUS), and five cases of prostate cancer in two generati
244 nal gammopathy of undetermined significance (MGUS), asymptomatic myeloma (AMM), and multiple myeloma
245 nal gammopathy of undetermined significance (MGUS), followed up to 30 years (median, 10 years), we es
246 nal gammopathy of undetermined significance (MGUS), have been described.
247 nal gammopathy of undetermined significance (MGUS), multiple myeloma (MM), Waldenstrom macroglobuline
248 l gammopathies of undetermined significance (MGUS), multiple myelomas (MM), and Waldenstrom's macrogl
249 nal gammopathy of undetermined significance (MGUS), which is usually only treated by a form of anti-m
250 nal gammopathy of undetermined significance (MGUS).
251 nal gammopathy of undetermined significance (MGUS).
252 nal gammopathy of undetermined significance (MGUS).
253 nal gammopathy of undetermined significance (MGUS).
254 nal gammopathy of undetermined significance (MGUS).
255 nal gammopathy of undetermined significance (MGUS).
256 nal gammopathy of undetermined significance (MGUS); however, to our knowledge, no studies have uncove
257 noclonal gammopathy of unknown significance (MGUS) and smoldering multiple myeloma (SMM) are asymptom
258 noclonal gammopathy of unknown significance (MGUS), PBC, and healthy donors.
259 nal gammopathy of undetermined significance [MGUS]).
260 nal gammopathy of undetermined significance [MGUS], presentation myeloma, and plasma cell leukemia).
261                                Using similar MGUS detection methods, there was a higher risk of MGUS
262       Despite their larger radial bone size, MGUS patients have significantly increased cortical bone
263                                Although some MGUS clones exhibited a complete response, many did not
264 ceptible to therapy are present in only some MGUS plasma cell clones.
265 ed from a population-based prevalence study (MGUS) and the Mayo Clinic (MM).
266 nst multiple myeloma plasma cell clones than MGUS plasma cell clones.
267  produce about four folds more exosomes than MGUS and healthy individuals.
268                                We noted that MGUS diagnosis often coincided with diagnoses of senile
269 ture risk, and we have previously shown that MGUS patients have altered trabecular bone microarchitec
270                                          The MGUS group had a significantly higher prevalence of mono
271                                          The MGUS-L signature was also seen in plasma cells from 15 o
272 geneity is also established early during the MGUS phase.
273 Cs) accumulate in the bone marrow during the MGUS-to-MM progression.
274 ssion from the aberrant plasma cell clone to MGUS and overt MM.
275 in the BM plasma samples from MM compared to MGUS patients.
276 n AMM patients predicted low risk similar to MGUS.
277 polygenic model of disease susceptibility to MGUS.
278 l failure, anemia, and bone lesions, whereas MGUS and smoldering myeloma are diagnosed based on labor
279 d epigenetic alterations that affect whether MGUS plasma cell clones are responsive to anti-multiple
280 en at Mayo Clinic between 1973 and 2004 with MGUS who subsequently progressed to MM.
281  discuss the potential harms associated with MGUS diagnosis, a topic that is rarely, if ever, broache
282 tients with submacular fluid associated with MGUS.
283 valence estimates of MGUS were compared with MGUS prevalence in 9469 men from Minnesota.
284  of individuals with MGUS is consistent with MGUS being a marker of inherited genetic susceptibility
285 negative, but the patient was diagnosed with MGUS, a premalignant condition.
286 yeloma (MM) in relatives of individuals with MGUS is consistent with MGUS being a marker of inherited
287 lure, and mortality between KT patients with MGUS and a matched cohort of KT recipients without MGUS.
288 tive metabolite levels between patients with MGUS and MM from an exploratory cohort.
289 ncies among blood-relatives of patients with MGUS and MM, and discusses future directions for researc
290 e 3-hydroxy-kynurenine between patients with MGUS and MM.
291 metabolites and lipids between patients with MGUS and MM.
292 dividualized risk profiles for patients with MGUS and SMM represents an ongoing challenge that has to
293 he current standard of care of patients with MGUS and SMM, the use of risk models, including flow cyt
294 lite profiles that differ from patients with MGUS compared to MM.
295  the frequency and outcomes of patients with MGUS identified pretransplant.
296 ing personalized management of patients with MGUS or smoldering myeloma, as well as the potential for
297 tance of clinical follow-up in patients with MGUS, regardless of risk stratification.
298 r predict progression to MM in patients with MGUS.
299 nce of MGUS among relatives of probands with MGUS, MM, and other blood malignancies.
300 nd a matched cohort of KT recipients without MGUS.

 
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