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The composite part pRAM_ProgRAM-recording-tape2.0 (Part:BBa_K5102073) is designed for the ProgRAM molecular recording system and features a recording tape composed of a series of START codons in the context of Kozak consensus arranged in three forward open reading frames (ORFs). In the composite part, the tape is in state 0, indicating that no molecular events have been recorded, and all adenosines in the START codons remain unmodified by dPspCas13b-ADAR2DD fusion. Downstream of the tape, a sequence of fluorescent proteins enables visualization of the current recorded state. The design incorporates sequentially modifiable adenosine sites within the RNA tape, creating a dynamic “traffic light” system that allows for precise in vivo monitoring of recording events without disrupting cellular functions. Each adenosine corresponds to a START codon; upon deamination, this modification disrupts the codon, shifting the open reading frame by one base pair and triggering the expression of one of three distinct fluorescent proteins: miRFP670nano3, mScarlet3, or mTagBFP2.

The frameshift-driven translation of multiple fluorescent proteins (XFPs) from a single construct required codon optimization in all three forward open reading frames, eliminating premature STOP codons.

For continuous and reliable translational-level control of total protein expression across our system, we incorporated eUnaG (Truong et al., 2024), a small green fluorescent protein codon-optimized for all three ORFs.To ensure proper protein folding, each fluorescent protein is encoded downstream of the RNA tape and preceded by a 2A peptide, which promotes ribosomal skipping during translation.

During recording tape design part design careful considerations have been taken to ensure high editing rates, as well as specificity of gRNA binding. The molecular recording utilized in the project is based on the REPAIR v2 system developed by Cox et al., 2017. It has previously been shown that both the nucleotides surrounding the modified adenosine, called central base triplet (CBT), as well as location of the modified A within the sequence play an important role in the editing efficiency. For 30 nucleotide gRNA spacer design, 22nd and 28th positions have been shown to be the most efficient. Introduction of a A12G mismatch showed increased binding disruption of gRNA, ensuring highly selectable editing.

While several Cas enzymes require a highly conserved Protospacer adjacent motif (PAM) sequence, PspCas13b does not require it for its activity. However, it still shows a preference for targets with protospacer flanking sites (PFSs).

After applying all of these considerations, we were left with the following minimal tapes design: GCCGUGGNNNGCCGUGGNNNGCCAUGGNNNGCCAUGGNNNGCCAUGGNNNGC. The missing nucleotides were designed in a way that: (i) N could be replaced by any nucleotide but adenosine, (ii) the gRNA complementary to the binding tape must have formed a conserved stem loop structure required by PspCas13b, which binds the ADAR2DD to the target deamination site. To ensure best design, to this end we have employed computational methods (please refer to the Model wiki for more details).

Additionally the composite part contains several elements ensuring high expression and stability of transcript:

The rest of the features of the composite part include:

Part Type Registry ID Description
CMV enhancer regulatory BBa_K5102067 5’ untranslated region. In the current instance, CMV 5’UTR (BBa_K5102068). This region can be substituted with synthetic alternatives, such as BBa_K5102065, offering customizable designs for modulation of RNA stability and ribosome recruitment as outlined on the model page.
CMV promoter regulatory BBa_K2217006 mammalian constitutive promotwe
CMV 5' UTR regulatory BBa_K5102068 constitutive mammalian promoter
T7 promoter regulatory BBa_K3633015 phage T7 promoter for in vitro expression of the ProgRAM
ProgRAM recording tape 2.0 RNA BBa_K5102033 Recording tape, functioning as a deamination target and translation initiation site. In the current instance, a 2.0 tape design (BBa_K5102037). This is a recording tape based on the REPAIR system using gRNAs with 30 nt long spacers.
T2A coding BBa_K5102012, BBa_K5102013, BBa_K5102014 ribosomal skip site
P2A coding BBa_K5102015 BBa_K5102016 BBa_K5102017 ribosomal skip site
miRFP670nano3 coding BBa_K5102001 near ir fluorescent protein
mScarlet3 coding BBa_K5102002 red fluorescent protein
mTagBFP2 coding BBa_K5102003 blue fluorescent protein
eUnaG coding BBa_K5102009, BBa_K5102010, BBa_K5102011 green fluorescent protein
3'UTR regulatory BBa_K5102053 Human beta-globin 3’UTR
PP7 aptamer RNA BBa_K5102054 a PP7 RNA aptamer acting as an anchor, enabling tape pulldown or localization.
T7 terminator regulatory BBa_K73172 phage T7 transcriptional terminator for in vitro expression of the ProgRAM
Woodchuck Posttranscriptional Regulatory Element regulatory BBa_K5102069 WPRE increases transgene expression
polyA polyA BBa_K2217005 polyA_signal_sequence

Other Composite Parts

Name ID Type Description
pRAM_ProgRAM-recording-tape1.0 BBa_K5102072 composite The composite part is designed for the ProgRAM molecular recording system and features a recording tape 1.0. Downstream of the tape, a sequence of fluorescent proteins is preceded by a 2A peptide. Additionally, eUnaG and elements to enhance mRNA expression and stability, such as the 5' CMV UTR, human beta-globin 3' UTR, and WPRE are being presented.
pRAM_ProgRAM-recording-tape2.0 BBa_K5102073 composite The composite part is designed for the ProgRAM molecular recording system and features a recording tape 2.0. Downstream of the tape, a sequence of fluorescent proteins is preceded by a 2A peptide. Additionally, eUnaG and elements to enhance mRNA expression and stability, such as the 5' CMV UTR, human beta-globin 3' UTR, and WPRE are being presented.
pRAM_ProgRAM-recording-tape2.1 BBa_K5102074 composite The composite part is designed for the ProgRAM molecular recording system and features a recording tape 2.1. Downstream of the tape, a sequence of fluorescent proteins is preceded by a 2A peptide. Additionally, eUnaG and elements to enhance mRNA expression and stability, such as the 5' CMV UTR, human beta-globin 3' UTR, and WPRE are being presented.
pRAM_ProgRAM-recording-tape3.0 BBa_K5102075 composite The composite part is designed for the ProgRAM molecular recording system and features a recording tape 3.0. Downstream of the tape, a sequence of fluorescent proteins is preceded by a 2A peptide. Additionally, eUnaG and elements to enhance mRNA expression and stability, such as the 5' CMV UTR, human beta-globin 3' UTR, and WPRE are being presented.
pRAM_ProgRAM-recording-tape3.1 BBa_K5102076 composite The composite part is designed for the ProgRAM molecular recording system and features a recording tape 3.1. Downstream of the tape, a sequence of fluorescent proteins is preceded by a 2A peptide. Additionally, eUnaG and elements to enhance mRNA expression and stability, such as the 5' CMV UTR, human beta-globin 3' UTR, and WPRE are being presented.
pRAM_ProgRAM-recording-tape4.0 BBa_K5102077 composite The composite part is designed for the ProgRAM molecular recording system and features a recording tape 4.0. Downstream of the tape, a sequence of fluorescent proteins is preceded by a 2A peptide. Additionally, eUnaG and elements to enhance mRNA expression and stability, such as the 5' CMV UTR, human beta-globin 3' UTR, and WPRE are being presented.
pRAM_ProgRAM-recording-tape5.0 BBa_K5102078 composite The composite part is designed for the ProgRAM molecular recording system and features a recording tape 5.0. Downstream of the tape, a sequence of fluorescent proteins is preceded by a 2A peptide. Additionally, eUnaG and elements to enhance mRNA expression and stability, such as the 5' CMV UTR, human beta-globin 3' UTR, and WPRE are being presented.
pRAM_syntheticUTR-ProgRAM-recording-tape2.0 BBa_K5102079 composite The composite part consists of: CMV enhancer, CMV promotor, 5' synthetic UTR, T7 promoter, recording tape 2.0, T2A, miRFP670nano3, P2A, eUnaG, T2A, mScarlet3, P2A, eUnaG, T2A, mTagBFP2, P2A, eUnaG, human beta-globin 3'UTR, PP7, T7 terminator, WPRE, SV40 polyA.
pRAM_syntheticUTR-ProgRAM-recording-tape3.0 BBa_K5102080 composite The composite part consists of: CMV enhancer, CMV promotor, 5' synthetic UTR, T7 promoter, recording tape 3.0, T2A, miRFP670nano3, P2A, eUnaG, T2A, mScarlet3, P2A, eUnaG, T2A, mTagBFP2, P2A, eUnaG, human beta-globin 3'UTR, PP7, T7 terminator, WPRE, SV40 polyA.
miRFP670nano3 in fusion with eUnaG BBa_K5102081 composite The part contains a CMV enhancer and CMV promoter driving the expression of miRFP670nano3, a near-infrared fluorescent protein, followed by a P2A self-cleaving peptide linking eUnaG, another fluorescent protein.
mScarlet-3 in fusion with eUnaG BBa_K5102082 composite The part contains a CMV enhancer and CMV promoter driving the expression of mScarlet-3, a red fluorescent protein, followed by a P2A self-cleaving peptide linking eUnaG, another fluorescent protein.
mTagBFP2in fusion with eUnaG BBa_K5102083 composite The part contains a CMV enhancer and CMV promoter driving the expression of mTagBFP2, a blue fluorescent protein, followed by a P2A self-cleaving peptide linking eUnaG, another fluorescent protein.
pU6_gRNA1-ProgRAM_tape1 BBa_K5102086 composite This construct includes a guide RNA (gRNA1 targeting first adenosine in the ProgRAM recoding tape 1) driven by the U6 promoter.
pU6_gRNA2-ProgRAM_tape1 BBa_K5102087 composite This construct includes a guide RNA (gRNA2 targeting first adenosine in the ProgRAM recoding tape 1) driven by the U6 promoter.
pU6_gRNA3-ProgRAM_tape1 BBa_K5102088 composite This construct includes a guide RNA (gRNA3 targeting first adenosine in the ProgRAM recoding tape 1) driven by the U6 promoter.
pU6_gRNA1-ProgRAM_tape2 BBa_K5102089 composite This construct includes a guide RNA (gRNA1 targeting first adenosine in the ProgRAM recoding tape 2) driven by the U6 promoter.
pU6_gRNA2-ProgRAM_tape2 BBa_K5102090 composite This construct includes a guide RNA (gRNA2 targeting first adenosine in the ProgRAM recoding tape 2) driven by the U6 promoter.
pU6_gRNA3-ProgRAM_tape2 BBa_K5102091 composite This construct includes a guide RNA (gRNA3 targeting first adenosine in the ProgRAM recoding tape 2) driven by the U6 promoter.
pU6_gRNA1-ProgRAM_tape3 BBa_K5102092 composite This construct includes a guide RNA (gRNA1 targeting first adenosine in the ProgRAM recoding tape 3) driven by the U6 promoter.
pU6_gRNA2-ProgRAM_tape3 BBa_K5102093 composite This construct includes a guide RNA (gRNA2 targeting first adenosine in the ProgRAM recoding tape 3) driven by the U6 promoter.
pU6_gRNA3-ProgRAM_tape3 BBa_K5102094 composite This construct includes a guide RNA (gRNA3 targeting first adenosine in the ProgRAM recoding tape 3) driven by the U6 promoter.
pU6_gRNA1-ProgRAM_tape4 BBa_K5102095 composite This construct includes a guide RNA (gRNA1 targeting first adenosine in the ProgRAM recoding tape 4) driven by the U6 promoter.
pU6_gRNA2-ProgRAM_tape4 BBa_K5102096 composite This construct includes a guide RNA (gRNA2 targeting first adenosine in the ProgRAM recoding tape 4) driven by the U6 promoter.
pU6_gRNA3-ProgRAM_tape4 BBa_K5102097 composite This construct includes a guide RNA (gRNA3 targeting first adenosine in the ProgRAM recoding tape 4) driven by the U6 promoter.
pU6_gRNA1-ProgRAM_tape5 BBa_K5102098 composite This construct includes a guide RNA (gRNA1 targeting first adenosine in the ProgRAM recoding tape 5) driven by the U6 promoter.
pU6_gRNA2-ProgRAM_tape5 BBa_K5102099 composite This construct includes a guide RNA (gRNA2 targeting first adenosine in the ProgRAM recoding tape 5) driven by the U6 promoter.
pU6_gRNA3-ProgRAM_tape5 BBa_K5102100 composite This construct includes a guide RNA (gRNA3 targeting first adenosine in the ProgRAM recoding tape 5) driven by the U6 promoter.
pRAM_ProgRAM-recording-tape2.0-4xdOkra BBa_K5102103 composite In the composite part, the tape 2 is in state 0 and downstream of the tape, a sequence of fluorescent proteins is being translated. To ensure proper protein folding, each fluorescent protein is encoded downstream of the RNA tape and preceded by a 2A peptide, which promotes ribosomal skipping during translation. To control for part transcription levels, a highly bright and stable green 4xdOkra aptamer is incorporated in the design. The composite part also contains elements to enhance mRNA expression and stability, such as the 5' CMV UTR, human beta-globin 3' UTR, and WPRE.
pRAM_ProgRAM-recording-tape3.0-4xdOkra BBa_K5102108 composite In the composite part, the tape 3 is in state 0 and downstream of the tape, a sequence of fluorescent proteins is being translated. To ensure proper protein folding, each fluorescent protein is encoded downstream of the RNA tape and preceded by a 2A peptide, which promotes ribosomal skipping during translation. To control for part transcription levels, a highly bright and stable green 4xdOkra aptamer is incorporated in the design. The composite part also contains elements to enhance mRNA expression and stability, such as the 5' CMV UTR, human beta-globin 3' UTR, and WPRE.
pcDNA_Zeo_NLuc BBa_K5102110 composite The part encodes for NanoLuc luciferase under the control of the CMV promoter, ensuring high-level, constitutive expression in mammalian cells.
pcDNA_Zeo_NLuc_STOP BBa_K5102111 composite The part encodes for NanoLuc luciferase under the control of the CMV promoter, ensuring high-level, constitutive expression in mammalian cells. The NanoLuciferase harbors a G35A point mutation introducing a STOP codon in the open reading frame.
pU6_PspCas13b-DR-gRNA_NLuc BBa_K5102112 composite This construct includes a guide RNA targeting NanoLuciferase STOP codon with a PspCas13b gRNA loop. The expressoion of gRNA is driven by the U6 promoter.
pcDNA_Zeo_NLuc_tape1.0 BBa_K5102114 composite The part consists of a CMV enhancer, CMV promoter, Program recording tape 1.0, T2A, NLuc and bovine growth hormone polyadenylation signal. The RNA recording tape in state zero features a series of start codon.
pcDNA_Zeo_NLuc_tape1.1 BBa_K5102115 composite The part consists of a CMV enhancer, CMV promoter, Program recording tape 1.1, T2A, NLuc and bovine growth hormone polyadenylation signal. The RNA recording tape in state zero features a series of start codon.
pcDNA_Zeo_NLuc_tape2.0 BBa_K5102116 composite The part consists of a CMV enhancer, CMV promoter, Program recording tape 2.0, T2A, NLuc and bovine growth hormone polyadenylation signal. The RNA recording tape in state zero features a series of start codon.
pcDNA_Zeo_NLuc_tape2.1 BBa_K5102117 composite The part consists of a CMV enhancer, CMV promoter, Program recording tape 2.1, T2A, NLuc and bovine growth hormone polyadenylation signal. The RNA recording tape in state zero features a series of start codon.
pcDNA_Zeo_NLuc_tape3.0 BBa_K5102118 composite The part consists of a CMV enhancer, CMV promoter, Program recording tape 3.0, T2A, NLuc and bovine growth hormone polyadenylation signal. The RNA recording tape in state zero features a series of start codon.
pcDNA_Zeo_NLuc_tape3.1 BBa_K5102119 composite The part consists of a CMV enhancer, CMV promoter, Program recording tape 3.1, T2A, NLuc and bovine growth hormone polyadenylation signal. The RNA recording tape in state zero features a series of start codon.
pcDNA_Zeo_NLuc_tape4.0 BBa_K5102120 composite The part consists of a CMV enhancer, CMV promoter, Program recording tape 4.0, T2A, NLuc and bovine growth hormone polyadenylation signal. The RNA recording tape in state zero features a series of start codon.
pcDNA_Zeo_NLuc_tape4.1 BBa_K5102121 composite The part consists of a CMV enhancer, CMV promoter, Program recording tape 4.1, T2A, NLuc and bovine growth hormone polyadenylation signal. The RNA recording tape in state zero features a series of start codon.
pcDNA_Zeo_NLuc_tape5.0 BBa_K5102122 composite The part consists of a CMV enhancer, CMV promoter, Program recording tape 5.0, T2A, NLuc and bovine growth hormone polyadenylation signal. The RNA recording tape in state zero features a series of start codon.
pcDNA_Zeo_NLuc_tape5.1 BBa_K5102123 composite The part consists of a CMV enhancer, CMV promoter, Program recording tape 5.1, T2A, NLuc and bovine growth hormone polyadenylation signal. The RNA recording tape in state zero features a series of start codon.
pRAM BBa_K5102000 DNA The minimal synthetic plasmid backbone, pRAM.

Other Basic Parts

Name ID Type Description
gRNA1_T1-30bp BBa_K5102018 RNA The part encodes a guide RNA (gRNA) that functions to switch the state from 0 to 1 in the ProgRAM recorder. This gRNA directs a deactivated Cas13b protein from the Prevotella species, which is fused to the ADAR2 deaminase domain. The Cas13b-gRNA complex guides the deaminase to the target sequence, facilitating precise RNA editing for state change.
gRNA2_T1-30bp BBa_K5102019 RNA The part encodes a guide RNA (gRNA) that functions to switch the state from 1 to 2 in the ProgRAM recorder. This gRNA directs a deactivated Cas13b protein from the Prevotella species, which is fused to the ADAR2 deaminase domain. The Cas13b-gRNA complex guides the deaminase to the target sequence, facilitating precise RNA editing for state change.
gRNA3_T1-30bp BBa_K5102020 RNA The part encodes a guide RNA (gRNA) that functions to switch the state from 2 to 3 in the ProgRAM recorder. This gRNA directs a deactivated Cas13b protein from the Prevotella species, which is fused to the ADAR2 deaminase domain. The Cas13b-gRNA complex guides the deaminase to the target sequence, facilitating precise RNA editing for state change.
gRNA1_T2-30bp BBa_K5102021 RNA The part encodes a guide RNA (gRNA) that functions to switch the state from 0 to 1 in the ProgRAM recorder. This gRNA directs a deactivated Cas13b protein from the Prevotella species, which is fused to the ADAR2 deaminase domain. The Cas13b-gRNA complex guides the deaminase to the target sequence, facilitating precise RNA editing for state change.
gRNA2_T2-30bp BBa_K5102022 RNA The part encodes a guide RNA (gRNA) that functions to switch the state from 1 to 2 in the ProgRAM recorder. This gRNA directs a deactivated Cas13b protein from the Prevotella species, which is fused to the ADAR2 deaminase domain. The Cas13b-gRNA complex guides the deaminase to the target sequence, facilitating precise RNA editing for state change.
gRNA3_T2-30bp BBa_K5102023 RNA The part encodes a guide RNA (gRNA) that functions to switch the state from 2 to 3 in the ProgRAM recorder. This gRNA directs a deactivated Cas13b protein from the Prevotella species, which is fused to the ADAR2 deaminase domain. The Cas13b-gRNA complex guides the deaminase to the target sequence, facilitating precise RNA editing for state change.
gRNA1_T3-30bp BBa_K5102024 RNA The part encodes a guide RNA (gRNA) that functions to switch the state from 0 to 1 in the ProgRAM recorder. This gRNA directs a deactivated Cas13b protein from the Prevotella species, which is fused to the ADAR2 deaminase domain. The Cas13b-gRNA complex guides the deaminase to the target sequence, facilitating precise RNA editing for state change.
gRNA2_T3-30bp BBa_K5102025 RNA The part encodes a guide RNA (gRNA) that functions to switch the state from 1 to 2 in the ProgRAM recorder. This gRNA directs a deactivated Cas13b protein from the Prevotella species, which is fused to the ADAR2 deaminase domain. The Cas13b-gRNA complex guides the deaminase to the target sequence, facilitating precise RNA editing for state change.
gRNA3_T3-30bp BBa_K5102026 RNA The part encodes a guide RNA (gRNA) that functions to switch the state from 2 to 3 in the ProgRAM recorder. This gRNA directs a deactivated Cas13b protein from the Prevotella species, which is fused to the ADAR2 deaminase domain. The Cas13b-gRNA complex guides the deaminase to the target sequence, facilitating precise RNA editing for state change.
gRNA1_T4-30bp BBa_K5102027 RNA The part encodes a guide RNA (gRNA) that functions to switch the state from 0 to 1 in the ProgRAM recorder. This gRNA directs a deactivated Cas13b protein from the Prevotella species, which is fused to the ADAR2 deaminase domain. The Cas13b-gRNA complex guides the deaminase to the target sequence, facilitating precise RNA editing for state change.
gRNA2_T4-30bp BBa_K5102028 RNA The part encodes a guide RNA (gRNA) that functions to switch the state from 1 to 2 in the ProgRAM recorder. This gRNA directs a deactivated Cas13b protein from the Prevotella species, which is fused to the ADAR2 deaminase domain. The Cas13b-gRNA complex guides the deaminase to the target sequence, facilitating precise RNA editing for state change.
gRNA3_T4-30bp BBa_K5102029 RNA The part encodes a guide RNA (gRNA) that functions to switch the state from 2 to 3 in the ProgRAM recorder. This gRNA directs a deactivated Cas13b protein from the Prevotella species, which is fused to the ADAR2 deaminase domain. The Cas13b-gRNA complex guides the deaminase to the target sequence, facilitating precise RNA editing for state change.
gRNA1_T5-30bp BBa_K5102030 RNA The part encodes a guide RNA (gRNA) that functions to switch the state from 0 to 1 in the ProgRAM recorder. This gRNA directs a deactivated Cas13b protein from the Prevotella species, which is fused to the ADAR2 deaminase domain. The Cas13b-gRNA complex guides the deaminase to the target sequence, facilitating precise RNA editing for state change.
gRNA2_T5-30bp BBa_K5102031 RNA The part encodes a guide RNA (gRNA) that functions to switch the state from 1 to 2 in the ProgRAM recorder. This gRNA directs a deactivated Cas13b protein from the Prevotella species, which is fused to the ADAR2 deaminase domain. The Cas13b-gRNA complex guides the deaminase to the target sequence, facilitating precise RNA editing for state change.
gRNA3_T5-30bp BBa_K5102032 RNA The part encodes a guide RNA (gRNA) that functions to switch the state from 2 to 3 in the ProgRAM recorder. This gRNA directs a deactivated Cas13b protein from the Prevotella species, which is fused to the ADAR2 deaminase domain. The Cas13b-gRNA complex guides the deaminase to the target sequence, facilitating precise RNA editing for state change.
tape_1.0 BBa_K5102033 RNA a RNA tape_1 in state zero, designed to record biological events in cells
tape_1.1 BBa_K5102034 RNA a RNA tape_1 in state one, designed to record biological events in cells
tape_1.2 BBa_K5102035 RNA a RNA tape_1 in state two, designed to record biological events in cells
tape_1.3 BBa_K5102036 RNA a RNA tape_1 in state three, designed to record biological events in cells
tape_2.1 BBa_K5102038 RNA a RNA tape_2 in state one, designed to record biological events in cells
tape_2.2 BBa_K5102039 RNA a RNA tape_2 in state two, designed to record biological events in cells
tape_2.3 BBa_K5102040 RNA a RNA tape_2 in state three, designed to record biological events in cells
tape_3.0 BBa_K5102041 RNA a RNA tape_3 in state zero, designed to record biological events in cells
tape_3.1 BBa_K5102042 RNA a RNA tape_3 in state one, designed to record biological events in cells
tape_3.2 BBa_K5102043 RNA a RNA tape_3 in state two, designed to record biological events in cells
tape_3.3 BBa_K5102044 RNA a RNA tape_3 in state three, designed to record biological events in cells
tape_4.0 BBa_K5102045 RNA a RNA tape_4 in state zero, designed to record biological events in cells
tape_4.1 BBa_K5102046 RNA a RNA tape_4 in state one, designed to record biological events in cells
tape_4.2 BBa_K5102047 RNA a RNA tape_4 in state two, designed to record biological events in cells
tape_4.3 BBa_K5102048 RNA a RNA tape_4 in state three, designed to record biological events in cells
tape_5.0 BBa_K5102049 RNA a RNA tape_5 in state zero, designed to record biological events in cells
tape_5.1 BBa_K5102050 RNA a RNA tape_5 in state one, designed to record biological events in cells
tape_5.2 BBa_K5102051 RNA a RNA tape_5 in state two, designed to record biological events in cells
tape_5.3 BBa_K5102052 RNA a RNA tape_5 in state three, designed to record biological events in cells
tdPCP BBa_K5102055 coding The tdPCP (tandem dimer PP7 coat protein) is a synthetic protein engineered by fusing two PP7 coat protein (PCP) monomers.
NanoLuciferase BBa_K5102056 coding Nanoluciferase is a small, engineered luciferase enzyme, which emits a bright bioluminescent signal when it catalyzes the oxidation of its substrate, furimazine.
NanoLuciferase BBa_K5102057 coding Nanoluciferase is a small, engineered luciferase enzyme, which emits a bright bioluminescent signal when it catalyzes the oxidation of its substrate, furimazine.
Nanoluciferase with STOP Codon disrupting expression BBa_K5102058 coding Nanoluciferase is a small, engineered luciferase enzyme, which emits a bright bioluminescent signal when it catalyzes the oxidation of its substrate, furimazine. This part harbors a G35A point mutation introducing a STOP codon in the open reading frame.
gRNA_Nlucrestoration BBa_K5102059 RNA This part encodes a guide RNA (gRNA) designed to specifically target the G35A point mutation in the NanoLuciferase gene.
REPAIR BBa_K5102060 coding fusion protein comprising the deactivated Cas13b enzyme from Prevotella species and the ADAR2DD deaminase domain
mTagBFP2 BBa_K5102061 coding blue fluorescent protein characterized by an excitation wavelength of 399 nm and an emission wavelength of 454 nm
mScarlet-I BBa_K5102062 coding mScarlet-I encodes red fluorescent protein, originating from a synthetic construct. It is characterized by 569 nm excitation and 593 nm emission wavelength
miRFP670nano BBa_K5102063 coding miRFPnano part encodes a red fluorescent protein characterized by an excitation wavelength of 645 nm and an emission wavelength of 670 nm
(G4S)3 linker BBa_K5102064 coding The (G4S)3 linker is a flexible peptide linker composed of three repeats of the glycine-serine (G4S) motif. It is used to connect two functional protein domains without disrupting their individual activities.
5' synthetic UTR BBa_K5102065 regulatory This part encodes for a 5' UTR designed synthetically for high protein expression using the deep learning model developed by Castillo-Hair et al. (2024).
tTa BBa_K5102066 coding The tTA (tetracycline-controlled transactivator) is a fusion protein combining the tetracycline repressor (TetR) and a viral transactivation domain (VP16).
4xdOkra BBa_K5102070 RNA Okra (Okra505) is a highly bright and stable green aptamer, developed for advanced imaging applications
pU6 promoter BBa_K5102085 regulatory Human U6 nuclear promoter for small RNA expression.
gRNA (50bp spacer) for switching state 0 to 1 for ProgRAM (tape I) BBa_K5102101 RNA The part encodes a guide RNA (gRNA) that functions to switch the state from 0 to 1 in the ProgRAM tape I design.
ProgRAM tape I BBa_K5102102 RNA The part encodes an RNA tape designed to record biological events in cells. The tape in state zero features three START codons in subsequent open reading frames (ORFs).
gRNA (50bp spacer) for switching state 0 to 1 for ProgRAM (tape II) BBa_K5102104 RNA The part encodes a guide RNA (gRNA) that functions to switch the state from 0 to 1 in the ProgRAM tape II design.
gRNA (50bp spacer) for switching state 0 to 1 for ProgRAM (tape III) BBa_K5102105 RNA The part encodes a guide RNA (gRNA) that functions to switch the state from 0 to 1 in the ProgRAM tape III design.
ProgRAM tape II BBa_K5102106 RNA The part encodes an RNA tape designed to record biological events in cells. The tape in state zero features three START codons in subsequent open reading frames (ORFs).
ProgRAM tape III BBa_K5102107 RNA The tape features a series of START codons in Kozak consensus context that are placed in three consecutive forward open reading frames.
CMV promoter BBa_K5102109 regulatory The part encodes the CMV promoter, a strong viral promoter that drives high-level, constitutive expression in mammalian cells.
T2A BBa_K5102113 coding T2A peptide is a short sequence that causes ribosome skipping during translation, allowing the production of two distinct proteins from one mRNA strand.
Lyn-mCherry-FLAG BBa_K5102127 coding mCherry fluorescent protein, N-terminally fused with Lyn, C-terminally with a FLAG tag
Oligos table
Name Sequence Sequence Length
001_F_WPRE_T7tt GAGCAATAACTAGCATAACCCCTTGGGGCCTCTAAACGGGTCTTGAGGGGTTTTTTGTCGACAATCAACCTCTGG 75
002_R_CMVp_T7p GGTTATGCTAGTTATTGCTCAGCGGTCCATGGGAGCTCCCTATAGTGAGTCGTATTATAGAGTCCGGAGGCTG 73
003_R_WPRE GTTTCCAGGCGGGGAG 16
004_F_SV40pA AACTTGTTTATTGCAGCTTATAATG 16
005_R_SV40pA CAGACATGATAAGATACATTGATG 24
006_F_ori GCTTCCTCGCTCACTG 16
007_F_AmpR_717G>A TCCACGCTCACCGGC 15
008_R_AmpR_717G>A TCTCGCGGTATCATTGC 17
009_F_pcDNA_5881C>G GTCCCGATCCCCTATGG 17
010_R_pcDNA_5881C>G ATCTCCCGATCCGTCG 16
011_F_mIRFP670nano GCAAACCTGGACAAGATGC 19
012_pcDNA_Zeo_lin_rev CATGGTGGCGAATTCCACCACAC 23
013_F_mScarletI ATGTCTAAAGGCGAGGC 17
014_R_T7_mTagBFP2 GGTGGCGAATTCCACCACACTGG 23
015_F_BGH_mScarlet -IGCGGCCGCTCGAGTCTAGAG 20
016_R_mTagBFP2_RT20 TCAATTAAGCTTGTGCCCCA 20
017_R_Kozak_NLuc GGTGAACACCATGGTGGCGAATTCCAC 27
018_F_pcDNA_NLuc AGAGAATCCTGGCCTAAGCGCCCGCTCG 28
019_F_NLuc_Kozak TTCGCCACCATGGTGTTCACCCTGGAAGATTTC 33
020_R_NLuc_pcDNA CGCTTAGGCCAGGATTCTCTCGC 23
021_F_NLuc_W12X GGCAGACCGCTGGC 14
022_R_NLuc_W12X GCTAGTCGCCCACGAAATCTTC 22
023_R_mScarlet-I CTTGTACAGCTCGTCCATTC 20
024_F_pcDNA-bGH TAGAGGGCCCGTTTAAACC 19
025_F_gRNA_NLuc CACCGCCAGTCGCCCACGAAATCTTCCAGGGTGA 34
026_R_gRNA_NLuc CAACTCACCCTGGAAGATTTCGTGGGCGACTGGC 34
027_R_pU6_2960A<C CCGCTTCCTCGCTCACTG 18
028_F_pU6_2960A<C CAGAGCGCCCAATACGCAAACC 22
029_F_pcDNA_NLuc_2 AATCCTGGCCTAAGCGCTGATCAGCCTCG 29
030_F_tape-amplification ACTATGTATTACCTTAGTCAGCTGC 25
031_F_gRNA1_tape1 CACCGCAAACCACGGCGGACCACGGCCCGCCACG 34
032_R_gRNA1_tape1 CAACCGTGGCGGGCCGTGGTCCGCCGTGGTTTGC 34
033_F_gRNA1_tape2 CACCGCGGCCCACGGCACGCCACGGCAAACCACG 34
034_R_gRNA1_tape2 CAACCGTGGTTTGCCGTGGCGTGCCGTGGGCCGC 34
035_F_gRNA1_tape3 CACCGCACGCCACGGCAAGCCACGGCGGACCACG 34
036_R_gRNA1_tape3 CAACCGTGGTCCGCCGTGGCTTGCCGTGGCGTGC 34
037_F_gRNA1_tape4 CACCGCGCACCACGGCAAGCCACGGCAGGCCACG 34
038_R_gRNA1_tape4 CAACCGTGGCCTGCCGTGGCTTGCCGTGGTGCGC 34
039_F_gRNA1_tape5 CACCGCCCGCCACGGCAAGCCACGGCGGACCACG 34
040_R_gRNA1_tape5 CAACCGTGGTCCGCCGTGGCTTGCCGTGGCGGGC 34
041_R_pcDNA_tape-amplification GTAATACATAGTGAATTCCACCACACTGGAC 31
042_F_tape-amplification_pcDNA GTGGTGGAATTCACTATGTATTACCTTAGTCAGCTGC 37
043_R_T2A_NanoLuc CAGGGTGAACACCGGGCCGGGATTTTCC 28
044_F_NanoLuc_T2A GCCCGGTGTTCACCCTGGAAGATTTC 26
045_F_RBS-Elowitz/mTurq_J23150 CCTAGGTATTATGCTAGCTACTAGAGAAAGAGG 33
046_R_J23150_pSB1A3 ACTGAGCTAGCCGTAAAAAGAAATCATCC 29
047_F_RBS-Elowitz/mTurq_J23151 CCTAGGTACAATGCTAGCTACTAGAGAAAGAGG 33
048_R_pSB1A3_J23151 ACTGAGCTAGCCATCAAAAGAAATCATCC 29
049_F_new_RBS-Elowitz/mTurq_J23119 TCCTAGGTATAATGCTAGCTACTAGAGAAAGAGGAG 36
049_F_RBS-Elowitz/mTurq_J23119 ACCTAGGTATAATGCTAGCTACTAGAGAAAGAGGAG 36
050_R_pSB1A3_J23119 CTGAGCTAGCTGTCAAAAGAAATCATCC 28
051_F_RBS-Elowitz/mTurq_J23104 TCCTAGGTATTGTGCTAGCTACTAGAGAAAGAGGAG 36
052_R_pSB1A3_ J23104 CTGAGCTAGCTGTCAAAAGAAATCATCC 28
053_F_CMV_G<C ACGCCATCCACGCTGTTTTG 20
054_R_CMV_G>C GTCCAGGCGATCTGACG 17
055_F_T7t_BsmBI CGTCTCCGTTTACCGCTGAGCAATAACTAGC 31
056_R_T7p_BsmBI CGTCTCCCCTATAGTGAGTCGTATTATAGAG 31
057_R_T7p_Kozak GGTGGCGGCGCTCCCTATAGTGAGTCG 27
058_R_WPRE_seq GCAACATAGTTAAGAATACCAGTC 24
059_F_T7t_eUnaG CACCGAGTGAACCGCTGAGCAATAACTAG 29
060_R_eUnaG_T7t GCTCAGCGGTTCACTCGGTGGCGCG 25
061_F_mScarlet3_Kozak ACTCACTATAGGGAGCGCCGCCACCATGGATTCGACGGAGG 41
062_F_Amp_mTurq GGGGTTCCGCGCACATTTC 19
063_F_T7t_eUnaG GAGCAACGGAGTAACTGAGCAATAACTAGC 30
064_R_eUnaG_T7t TATTGCTCAGTTACTCCGTTGCTCG 25
065_F_mTagBFP2_Kozak ACTCACTATAGGGAGCGCCGCCACCATGGTTTCGAAGGGGGAG 43
067_F_T7t_eUnaG TACCGAGTAGACCGCTGAGCAATAACTAG 29
068_T7t_eUnaG TTGCTCAGCGGTCTACTCGGTAGCTCTCC 29
069_F_mScarlet3_V22M ATGAACGGACACGAGTTC 18
070_R_mScarlet3_V22M AGATCCCTCCATGTGGAC 18
071_F_mScarlet3_V98N AAUTTCGAGGATGGCGGTG 19
072_R_mScarlet3_V98N CATAACCCTCTCCCATTTG 19
073_F_mTagBFP2_R16K AAACTCTACATGGAGGGCAC 20
074_R_mTagBFP2_R16K CATGTGCATGTTCTCTTTG 19
075_F_T7p_syntUTR AATCGCAGCGTTTAGCAATAGCAGTATAAATTGCGTAATACGACTCACTATAGGG 55
076_R_CMVp_synthUTR TGCTATTGCTAAACGCTGCGATTTGCACCGCTTGACGGAGCTCTGCTTATATAGACC 57
077_T7psynt_BsmBI CGTCTCCCCTATAGTGAGTCGTATTAC 27
078_R_pC0054_PCP ATGGTGGCGGTGGCAAGCTTAAGTTTAAAC 30
079_F_corrected_PCP_pC0054 AAGCTTGCCACCGCCACCATGTCCAAGACTATCGTAC 37
079_F_PCP_pC0054 TTAAGCTTGCCACCGCCACCATGTCCAAGAC 31
079_new_F_PCP_pC0054 TTAAGCTTGCCACCATGTCCAAGACTATCGTAC 33
080_R_NanoLuc_MluI ACGCGTTTAGGCCAGGATTCTCTC 24
081_F_tape_PacI TTAATTAAAGCTGCCGTCTCATAGG 25
082_R_PCP_(G4S)3 ACCGCCTGAACCTCCACCGCCAGAACCACCTCCGCCACGGCCGAGGGGGAC 51
083_R_corrected_PCP_dPspCas13b TGTTCATGGGACGGCCGAGGGGGAC 25
083_R_PCP_dPspCas13b GGGGATGTTCATGGGACGGCCGAGGGGGAC 30
084_F_dPspCas13b_PCP CCTCGGCCGTCCCATGAACATCCCCGCTCTG 31
085_F_dPspCas13b_(G4S)3 CGGTGGAGGTTCAGGCGGTGGTGGAAGTATGAACATCCCCGCTCTG 46
086_R_ADARdd_GSG-FLAG ATCGTCATCTTTGTAATCTCCTGACCCCGTGAGTGAGAACTGGTC 45
087_F_miRFPnano_T7p TATAGGGAGCGCCGCCACCATGGCCAACCTGGACAAG 37
089_F_pC0054_FLAG TCAGGAGATTACAAAGATGACGATGATAAATAAGCGGCCGCTCGAG 46
090_R_ADARdd_GSG-StrepTwin GCGCTTCCTGACCCCGTGAGTGAGAACTGG 30
091_F_mTurq-CDSmut TGCCGATTCTGGTTGAGCTGG 21
092_R_mTurq-CDSmut CGACGCCGGTGAACAGTTCTTC 22
093_F_T7p_PacI TTAATTAAAATTAATACGACTCACTATAGG 30
094_R_linker GTAGGCGCGTCCGAG 15
095_F_(G4S)3 GGCGGAGGTGGTTCTG 16
096_F_StrepTwin_GSG-ADARdd ACCAGTTCTCACTCACGGGGTCAGGAAGCGCCTGGTCCCAC 41
097_R_TwinStrep_pC0054 CTAGGCTCGAGCGGCCGCTTACTTTTCGAACTGGGGGTG 39
098_F_pC0054_TwinStrep AGCCACCCCCAGTTCGAAAAGTAAGCGGCCGCTCGAG 37
099_F_PacI-T7p ATCCTTAATTAATAATACGACTCACTATAGGG 32
110_F_mTurq_1872A>C ACACCGGCGTCGTGC 15
110new_F_mTurq_1872A>C TCACCGGCGTCGTGC 15
111_R_mTurq ACAGTTCTTCACCCTTG 17
112_F_gRNA2_tape1 CACCGCCCGCCACGGCAAACCACGGCGGACCACG 34
113_R_gRNA2_tape1 CAACCGTGGTCCGCCGTGGTTTGCCGTGGCGGGC 34
114_F_gRNA3_tape1 CACCGCGGACCACGGCCCGCCACGGCAAACCACG 34
115_R_gRNA3_tape1 CAACCGTGGTTTGCCGTGGCGGGCCGTGGTCCGC 34
116_F_gRNA2_tape2 CACCGCAAACCACGGCGGCCCACGGCACGCCACG 34
117_R_gRNA2_tape2 CAACCGTGGCGTGCCGTGGGCCGCCGTGGTTTGC 34
118_F_gRNA3_tape2 CACCGCACGCCACGGCAAACCACGGCGGCCCACG 34
119_R_gRNA3_tape2 CAACCGTGGGCCGCCGTGGTTTGCCGTGGCGTGC 34
120_F_gRNA2_tape3 CACCGCGGACCACGGCACGCCACGGCAAGCCACG 34
121_R_gRNA2_tape3 CAACCGTGGCTTGCCGTGGCGTGCCGTGGTCCGC 34
122_F_gRNA3_tape3 CACCGCAAGCCACGGCGGACCACGGCACGCCACG 34
123_R_gRNA3_tape3 CAACCGTGGCGTGCCGTGGTCCGCCGTGGCTTGC 34
124_F_gRNA2_tape4 CACCGCAGGCCACGGCGCACCACGGCAAGCCACG 34
125_R_gRNA2_tape4 CAACCGTGGCTTGCCGTGGTGCGCCGTGGCCTGC 34
126_F_gRNA3_tape4 CACCGCAAGCCACGGCAGGCCACGGCGCACCACG 34
127_R_gRNA3_tape4 CAACCGTGGTGCGCCGTGGCCTGCCGTGGCTTGC 34
128_F_gRNA2_tape5 CACCGCGGACCACGGCCCGCCACGGCAAGCCACG 34
129_R_gRNA2_tape5 CAACCGTGGCTTGCCGTGGCGGGCCGTGGTCCGC 34
130_F_gRNA3_tape5 CACCGCAAGCCACGGCGGACCACGGCCCGCCACG 34
131_R_gRNA3_tape5 CAACCGTGGCGGGCCGTGGTCCGCCGTGGCTTGC 34
132_F_gRNA1_tapeM1_50bp CACCCGGCAACCCGACGCCACGGCGGCGGCAACCAAGCGCCACGGCGGCGGCAA 54
133_R_gRNA1_tapeM1_50bp CAACTTGCCGCCGCCGTGGCGCTTGGTTGCCGCCGCCGTGGCGTCGGGTTGCCG 54
134_F_gRNA1_tapeM2_50bp CACCCGGCAACCAAGCGCCACGGCGGCGGCAACCCGACGCCACGGCGGCGGCAA 54
135_R_gRNA1_tapeM2_50bp CAACTTGCCGCCGCCGTGGCGTCGGGTTGCCGCCGCCGTGGCGCTTGGTTGCCG 54
136_F_gRNA1_tapeNM1_50bp CACCCGGCCCCCCCGCGCCACGGCGGCGGCAGCCAGACGCCACGGCGGCGGCGA 54
137_R_gRNA1_tapeNM1_50bp CAACTCGCCGCCGCCGTGGCGTCTGGCTGCCGCCGCCGTGGCGCGGGGGGGCCG 54
138_F_tape50bp_NM_1.0 TAGGGTCGGTCGCCGCCGCCGTGGCGTCTGGCTGCCGCCGCCATGGCGCGGGGGGGCCGCCGCCATGGCGGTCGGTCGCCGCCGCCATGG 90
139_R_tape50bp_NM_1.0 ATCCAGCGGCAGCCAGACGCCATGGCGGCGGCGACCGACCGCCATGGCGGCGGCCCCCCCGCGCCATGGCGGCGGCAGCCAGACGCCACG 90
140_F_tape50bp_M1.0 TAGGGGCGGTTGCCGCCGCCGTGGCGCTTGGTTGCCGCCGCCATGGCGTCGGGTTGCCGCCGCCATGGCGGGCGGTTGCCGCCGCCATGG 90
141_R_tape50bp_M1.0 ATCCAGCGGCAACCAAGCGCCATGGCGGCGGCAACCGCCCGCCATGGCGGCGGCAACCCGACGCCATGGCGGCGGCAACCAAGCGCCACG 90
142_F_tape50bp_M2.0 TAGGGGCGGTTGCCGCCGCCGTGGCGTCGGGTTGCCGCCGCCATGGCGCTTGGTTGCCGCCGCCATGGCGGGCGGTTGCCGCCGCCATGG 90
143_R_tape50bp_M2.0 ATCCAGCGGCAACCCGACGCCATGGCGGCGGCAACCGCCCGCCATGGCGGCGGCAACCAAGCGCCATGGCGGCGGCAACCCGACGCCACG 90
144_F_T7p_cPCR TAATACGACTCACTATAGGG 20
145_R_mTagBFP2_cPCR GTTCTCTTTGATAAGTTCCTC 21
146_R_NanoLuc_pp7 CCATATCTTCTGGTCTTAGGCCAGGATTCTCTC 33
147_F_bGH_pp7 CTTCGGTTGCGCTGATCAGCCTCG 24
148_F_qPCR_mTagBFP2 ATCGCCAACGCCAAGACC 18
149_R_qPCR_mTagBFP2 CTGCCACTTCGTGCTGCT 18
150_F_qPCR_GAPDH TTGGCTACAGCAACAGGGTG 20
151_R_qPCR_GAPDH GGGGAGATTCAGTGTGGTGG 20
152_F_tape2.3 TAGGGCCGTGGTTTGCCGTGGCGTGCCGTGGGCCGCCGTGGTTTGCCGTGGCGTGCT 57
153_R_tape2.3 ATCCAGCACGCCACGGCAAACCACGGCGGCCCACGGCACGCCACGGCAAACCACGGC 57
154_F_tape3.3 TAGGGCCGTGGTCCGCCGTGGCTTGCCGTGGCGTGCCGTGGTCCGCCGTGGCTTGCT 57
155_R_tape3.3 ATCCAGCAAGCCACGGCGGACCACGGCACGCCACGGCAAGCCACGGCGGACCACGGC 57
156_F_mScarlet3_T598<G GATATCACCTCCCACAAC 18
157_R_mScarlet3 GAGCTTCCGATCGATATTG 19
158_F_mScarlet3_seq GAGTTCATGCGATTCAAAG 19
159_R_mScarlet3_seq GGAGACAGTATATCCCAG 18
160_F_mTagBFP2_seq GAACTTATCAAAGAGAACATG 21
161_R_mTagBFP2_seq GCGTGTGGTTGATGAATG 18
162_F_TetRE_CmvProm CGGACTCTATCCCTATCAGTGATAGAGAAAAGTGAAAGTCGAG 43
163_R_TetRE_T7Prom TATTATCTCTATCACTGATAGGGAGTGGTAAACTCG 36
164_R_CMVProm_TetRE GATAGGGATAGAGTCCGGAGGCTGGATC 28
165_F_T7Prom_TetRE CCTATCAGTGATAGAGATAATACGACTCACTATAGGG 37
166_F_CMVEnhance_seq CATCTACGTATTAGTCATCGC 21
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