PMID-sentid	Pub_year	Sent_text		comp_official_name	comp_offsetprotein_name	organism	prot_offset
24430057-3	2014	Here we show that Si nanoarray/PEDOT:PSS hybrid solar cells with improved stability can be fabricated via eliminating the water inclusion in the initial formation of the heterojunction between Si nanoarray and PEDOT:PSS.	Silicon	18-20	PSS	Homo sapiens	37-40	
31561630-0	2019	Fabrication of an Efficient Planar Organic-Silicon Hybrid Solar Cell with a 150 nm Thick Film of PEDOT: PSS.	Silicon	43-50	PSS	Homo sapiens	104-107	
29692171-3	2018	The Si nanowire array/PEDOT:PSS hybrid solar cell structure exhibited a high power conversion efficiency (PCE) of 12.37%.	Silicon	4-6	PSS	Homo sapiens	28-31	
27905094-4	2016	Based on the Pt-modified PEDOT:PSS layer, the efficiency of the silicon/PEDOT:PSS cell can be increased to 11.46%, corresponding to ~20% enhancement to the one without platinum (Pt) modification.	Silicon	64-71	PSS	Homo sapiens	31-34	
27905094-4	2016	Based on the Pt-modified PEDOT:PSS layer, the efficiency of the silicon/PEDOT:PSS cell can be increased to 11.46%, corresponding to ~20% enhancement to the one without platinum (Pt) modification.	Silicon	64-71	PSS	Homo sapiens	78-81	
27905094-5	2016	Theoretical and experimental results show that, when increasing the WF of the PEDO:PSS layer, the barrier height between the silicon/PEDOT:PSS interface can be effectively enhanced.	Silicon	125-132	PSS	Homo sapiens	83-86	
27905094-5	2016	Theoretical and experimental results show that, when increasing the WF of the PEDO:PSS layer, the barrier height between the silicon/PEDOT:PSS interface can be effectively enhanced.	Silicon	125-132	PSS	Homo sapiens	139-142	
27905094-7	2016	These results can contribute to better understanding of the interfacial mechanism of silicon/PEDOT:PSS interface, and further improving the device performance of silicon/organic solar cells.	Silicon	85-92	PSS	Homo sapiens	99-102	
27905094-7	2016	These results can contribute to better understanding of the interfacial mechanism of silicon/PEDOT:PSS interface, and further improving the device performance of silicon/organic solar cells.	Silicon	162-169	PSS	Homo sapiens	99-102	
24550094-1	2014	By combining nanoimprint lithography technique and a two-step lift-off process, a Si nanotube array is fabricated and applied as a light absorber for n-Si/PEDOT:PSS hybrid solar cells.	Silicon	82-84	PSS	Homo sapiens	161-164	
24738402-1	2014	We demonstrate locally contacted PEDOT:PSS Schottky diodes with excellent rectifying behavior, fabricated on n-type Si substrates using a spin-coating process and a reactive-ion etching process.	Silicon	116-118	PSS	Homo sapiens	39-42	
29445956-5	2018	The high conversion efficiency is attributed to the fully conformal contact between PEDOT:PSS film and textured silicon.	Silicon	112-119	PSS	Homo sapiens	90-93	
27232372-2	2016	However, when it is used in the organic-silicon heterojunction solar cells with traditional pyramid texturing surface, the device performance is limited by the contact between the PEDOT: PSS and silicon wafer at the bottom of the pyramids.	Silicon	40-47	PSS	Homo sapiens	187-190	
26964648-0	2016	Unveiling the Hybrid n-Si/PEDOT:PSS Interface.	Silicon	23-25	PSS	Homo sapiens	32-35	
26695703-1	2016	UNLABELLED: Silicon-organic solar cells based on conjugated polymers such as poly(3,4-ethylenedioxythiophene):poly(styrenesulfonate) ( PEDOT: PSS) on n-type silicon (n-Si) attract wide interest because of their potential for cost-effectiveness and high-efficiency.	Silicon	12-19	PSS	Homo sapiens	142-145	
26695703-1	2016	UNLABELLED: Silicon-organic solar cells based on conjugated polymers such as poly(3,4-ethylenedioxythiophene):poly(styrenesulfonate) ( PEDOT: PSS) on n-type silicon (n-Si) attract wide interest because of their potential for cost-effectiveness and high-efficiency.	Silicon	157-164	PSS	Homo sapiens	142-145	
26695703-1	2016	UNLABELLED: Silicon-organic solar cells based on conjugated polymers such as poly(3,4-ethylenedioxythiophene):poly(styrenesulfonate) ( PEDOT: PSS) on n-type silicon (n-Si) attract wide interest because of their potential for cost-effectiveness and high-efficiency.	Silicon	12-14	PSS	Homo sapiens	142-145	
26174964-0	2015	13.2% efficiency Si nanowire/PEDOT:PSS hybrid solar cell using a transfer-imprinted Au mesh electrode.	Silicon	17-19	PSS	Homo sapiens	35-38	
24430057-3	2014	Here we show that Si nanoarray/PEDOT:PSS hybrid solar cells with improved stability can be fabricated via eliminating the water inclusion in the initial formation of the heterojunction between Si nanoarray and PEDOT:PSS.	Silicon	18-20	PSS	Homo sapiens	216-219	
24430057-3	2014	Here we show that Si nanoarray/PEDOT:PSS hybrid solar cells with improved stability can be fabricated via eliminating the water inclusion in the initial formation of the heterojunction between Si nanoarray and PEDOT:PSS.	Silicon	193-195	PSS	Homo sapiens	37-40	
19916418-5	2009	Si(100)/PDDA/PSS/ND (nano-diamond) layer-by-layer structure was formed as a seeding layer by the simple dipping and rinsing of positively charged substrate into anionic PSS/nano-diamond solution.	Silicon	0-2	PSS	Homo sapiens	8-19