1,835 results on '"A. van Stipdonk"'
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102. 8 Practicum
103. 5 Het meten van de bloeddruk
104. 6 Stoornissen in de vitale levensfuncties
105. 4 Het observeren van de ademhaling
106. 3 Het observeren van de hartslag (radiale pols)
107. 2 Het meten van de lichaamstemperatuur en koude- en warmtetoediening
108. 7 Zelfevaluatietoets en trainingsbijeenkomst
109. 3 Helpen bij de uitscheiding van urine en feces
110. 6 Hulp bieden bij overige vormen van uitscheiding
111. 5 Het geven van hulp aan zorgvragers met defecatieproblemen
112. 2 Hulp bieden bij opname van voeding en vocht
113. 4 Het geven van hulp aan zorgvragers met mictieproblemen
114. 7 Verplaatsingen binnen de grenzen van het bed
115. 8 Transfers met behulp van een tillift
116. 6 Het in en uit bed helpen van een zorgvrager
117. 5 Ondersteunen bij het lopen, vallen en opstaan
118. 4 Basistechnieken bij het verplaatsen van zorgvragers
119. 11 Oefenen tijdens de stage
120. 10 Practicum
121. Response to Letter From Vereckei Regarding, “QRS Area Is a Strong Determinant of Outcome in Cardiac Resynchronization Therapy”
122. Non-invasive three-dimensional electrical activation mapping to predict cardiac resynchronization therapy response::site of latest left ventricular activation relative to pacing site
123. Association of vectorcardiographic T-wave area with clinical and echocardiographic outcomes in cardiac resynchronization therapy
124. Comparison of the relation of the ESC 2021 and ESC 2013 definitions of left bundle branch block with clinical and echocardiographic outcome in cardiac resynchronization therapy
125. Non-invasive three-dimensional electrical activation mapping to predict cardiac resynchronization therapy response: site of latest left ventricular activation relative to pacing site
126. Electrocardiogram-based deep learning improves outcome prediction following cardiac resynchronization therapy
127. Exploring QRS Area beyond Patient Selection in CRT—Can It Guide Left Ventricular Lead Placement?
128. Prevalence and prognostic value of ventricular conduction delay in heart failure with preserved ejection fraction
129. Electrophysiologic effects of left bundle branch area pacing: comparing left ventricular septal pacing and left bundle branch pacing
130. Subcutaneous implantable cardioverter-defibrillator generator removal: a multicenter analysis
131. PO-02-025 REPOLARIZATION CHANGES FOLLOWING LEFT BUNDLE BRANCH AREA PACING VERSUS CONVENTIONAL BIVENTRICULAR PACING IN PATIENTS WITH DYSSYNCHRONOUS HEART FAILURE
132. CI-452767-4 NON-INVASIVE 3D ELECTRICAL ACTIVATION MAPPING TO PREDICT CRT RESPONSE: SITE OF LATEST LV ACTIVATION RELATIVE TO PACING SITE
133. Comparison of Left Bundle-Branch Area Pacing to Biventricular Pacing in Candidates for Resynchronization Therapy
134. LB-456088-1 LEFT BUNDLE BRANCH AREA PACING COMPARED TO BIVENTRICULAR PACING FOR CARDIAC RESYNCHRONIZATION THERAPY: RESULTS FROM INTERNATIONAL LBBAP COLLABORATIVE STUDY GROUP
135. Activation time at left ventricular pacing site (QLV) relative to actual site of latest activation – implications for response to cardiac resynchronization therapy
136. Data from Design of Agonistic Altered Peptides for the Robust Induction of CTL Directed towards H-2Db in Complex with the Melanoma-Associated Epitope gp100
137. Supplementary Figure 3 from Design of Agonistic Altered Peptides for the Robust Induction of CTL Directed towards H-2Db in Complex with the Melanoma-Associated Epitope gp100
138. Supplementary Figure 6 from Design of Agonistic Altered Peptides for the Robust Induction of CTL Directed towards H-2Db in Complex with the Melanoma-Associated Epitope gp100
139. Supplementary Figure 4 from Design of Agonistic Altered Peptides for the Robust Induction of CTL Directed towards H-2Db in Complex with the Melanoma-Associated Epitope gp100
140. Supplementary Table 1 from Design of Agonistic Altered Peptides for the Robust Induction of CTL Directed towards H-2Db in Complex with the Melanoma-Associated Epitope gp100
141. Supplementary Figure 2 from Design of Agonistic Altered Peptides for the Robust Induction of CTL Directed towards H-2Db in Complex with the Melanoma-Associated Epitope gp100
142. Supplementary Figure 1 from Design of Agonistic Altered Peptides for the Robust Induction of CTL Directed towards H-2Db in Complex with the Melanoma-Associated Epitope gp100
143. Supplementary Figure Legends 1-6 from Design of Agonistic Altered Peptides for the Robust Induction of CTL Directed towards H-2Db in Complex with the Melanoma-Associated Epitope gp100
144. Supplementary Figure 5 from Design of Agonistic Altered Peptides for the Robust Induction of CTL Directed towards H-2Db in Complex with the Melanoma-Associated Epitope gp100
145. Comparison of the relation of the ESC 2021 and ESC 2013 definitions of left bundle branch block with clinical and echocardiographic outcome in cardiac resynchronization therapy
146. Non-invasive three-dimensional electrical activation mapping to predict cardiac resynchronization therapy response: site of latest left ventricular activation relative to pacing site
147. IRMPD spectroscopy reveals a novel rearrangement reaction for modified peptides that involves elimination of the N-terminal amino acid
148. Better outcome at lower costs after implementing a CRT‐care pathway: comprehensive evaluation of real‐world data
149. Electrophysiologic effects of left bundle branch area pacing: comparing left ventricular septal pacing and left bundle branch pacing
150. LB-456088-1 LEFT BUNDLE BRANCH AREA PACING COMPARED TO BIVENTRICULAR PACING FOR CARDIAC RESYNCHRONIZATION THERAPY: RESULTS FROM INTERNATIONAL LBBAP COLLABORATIVE STUDY GROUP
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