mhurhangee/ep-ind-claims huggingface dataset:
A block generation method, wherein the method comprises: generating a first block and a second block wherein the first block comprises a first block unit, the second block comprises a second block unit, wherein the first block unit includes N 8-bit data blocks and the second block unit includes N 8-bit data blocks, where N is greater than or equal to 1 and is a positive integer; a first indicator is configured in the first block unit, and the first indicator is used to indicate whether the second block unit is a control code; and sending the first block and the second block, wherein the first block further comprises a third block unit, and the third block unit is before the first block unit; and a second indicator is further configured in the first block unit, and the second indicator is used to indicate whether the third block unit before the first block unit is a control code. generating a first block and a second block wherein the first block comprises a first block unit, the second block comprises a second block unit, wherein the first block unit includes N 8-bit data blocks and the second block unit includes N 8-bit data blocks, where N is greater than or equal to 1 and is a positive integer; a first indicator is configured in the first block unit, and the first indicator is used to indicate whether the second block unit is a control code; and sending the first block and the second block, wherein the first block further comprises a third block unit, and the third block unit is before the first block unit; and a second indicator is further configured in the first block unit, and the second indicator is used to indicate whether the third block unit before the first block unit is a control code.
A gas generator for a safety device in a vehicle, comprising a housing and a combustion chamber located inside the housing, wherein a pyrotechnic propellant and at least one filling body are accommodated in the combustion chamber, and wherein the filling body is made of a melamine resin foam.
A process for production of a stable eukaryotic cell line which expresses PylRS and tRNAPyl and which is suitable for incorporation of a gene encoding a target protein containing one or more non-natural amino acids encoded by a nonsense codon, the process comprising: i. in one or more steps introducing into a eukaryotic cell line genes encoding PylRS and tRNAPyl such that PylRS and tRNAPyl are stably expressed in said cell line; and ii. culturing or selecting said cell line in a medium in which there is present a decoy amino acid which is a substrate for PylRS but which is incapable of incorporation into an extending protein chain, wherein the decoy amino acid is a compound of formula VIIA: wherein K = CO or SO 2; Q=-H, C 1-6 alkyl, aryl, heteroaryl -OC 1-6 alkyl, -OCH 2 aryl, - OCH 2 heteroaryl, -C 2-6 alkenyl or -OC 2-6 alkenyl; or a compound of formula VIIB: wherein G=H; a=4 or 5; and R= C 1-6 alkyl, C 2-6 alkenyl,-CH 2 aryl, C 2-6 alkynyl, C 1-6 haloalkyl or C 1-6 azidoalkyl. i. in one or more steps introducing into a eukaryotic cell line genes encoding PylRS and tRNAPyl such that PylRS and tRNAPyl are stably expressed in said cell line; and ii. culturing or selecting said cell line in a medium in which there is present a decoy amino acid which is a substrate for PylRS but which is incapable of incorporation into an extending protein chain, wherein the decoy amino acid is a compound of formula VIIA: wherein K = CO or SO 2; Q=-H, C 1-6 alkyl, aryl, heteroaryl -OC 1-6 alkyl, -OCH 2 aryl, - OCH 2 heteroaryl, -C 2-6 alkenyl or -OC 2-6 alkenyl; or a compound of formula VIIB: wherein G=H; a=4 or 5; and R= C 1-6 alkyl, C 2-6 alkenyl,-CH 2 aryl, C 2-6 alkynyl, C 1-6 haloalkyl or C 1-6 azidoalkyl. K = CO or SO 2; Q=-H, C 1-6 alkyl, aryl, heteroaryl -OC 1-6 alkyl, -OCH 2 aryl, - OCH 2 heteroaryl, -C 2-6 alkenyl or -OC 2-6 alkenyl; or a compound of formula VIIB: wherein G=H; a=4 or 5; and R= C 1-6 alkyl, C 2-6 alkenyl,-CH 2 aryl, C 2-6 alkynyl, C 1-6 haloalkyl or C 1-6 azidoalkyl.
Polynucleotide encoding a fusion protein, said fusion protein comprising or consisting of the exosome-anchoring protein of sequence SEQ ID NO:1 fused at its C-terminus with an immunogenic antigen, or a DNA expression vector comprising said polynucleotide, for use in preventative or therapeutic vaccination by inducing a CTL immune response, wherein SEQ ID NO:1 is the following sequence: wherein said polynucleotide or DNA expression vector is administered by intramuscular administration.
• A composition for use in the promotion of hair growth and inhibition of hair loss in alopecia areta, androgenic alopecia, scarring alopecia, female pattern alopecia, alopecia seborrheica or alopecia senilis comprising i) blood plasma or serum; and ii) silk protein having a structure in which the peptide represented by the amino acid sequence of SEQ ID NO: 1 is repeated 1 to 160 times or sericin protein, as active ingredients.
A dowel fastener for compressive insertion within apertures in joint members (24,26) of wood, metal or synthetic material to form a friction joint without permanent plastic deformation of the dowel fastener, said dowel fastener comprising: a flexible, resilient, tubular body having a central axis, an inside surface, an exterior surface, a slot having a predetermined width when said dowel fastener is uncompressed, and two ends (14a, 14b) at least one of which is tapered, said slot having opposing edges on said tubular body and extending from end to end along said dowel fastener; at least one tab at a first position along said slot, said tab having a free end, and a width less than the length of said slot, said tubular body providing a cylindrical, exterior gripping surface for engagement with the sides of the joint apertures, said tubular body having a flexibility and a resilency sufficient to allow only elastic movement of the sides of said slot toward one another without plastic deformation of said tubular body to reduce the dowel fastener diameter such that said dowel fastener is compressible from its normal, uncompressed diameter for insertion in a smaller joint aperture, said dowel fastener having sufficient resilency for secure frictional engagement of said exterior gripping surface with the sides of the joint apertures, characterized in that said tab has a length greater than said slot width at said first position, said tab extending from one edge of said slot across said slot toward said opposing slot edge and engaging said inside surface of said tubular body adjacent said opposing slot edge, so that an offset of tab allows its outside surface to contact the inside surface of said tubular body, said resiliency of said tubular body and the engagement of said tab with said inside surface of said tubular body together resisting compression of said dowel fastener. a flexible, resilient, tubular body having a central axis, an inside surface, an exterior surface, a slot having a predetermined width when said dowel fastener is uncompressed, and two ends (14a, 14b) at least one of which is tapered, said slot having opposing edges on said tubular body and extending from end to end along said dowel fastener; at least one tab at a first position along said slot, said tab having a free end, and a width less than the length of said slot, said tubular body providing a cylindrical, exterior gripping surface for engagement with the sides of the joint apertures, said tubular body having a flexibility and a resilency sufficient to allow only elastic movement of the sides of said slot toward one another without plastic deformation of said tubular body to reduce the dowel fastener diameter such that said dowel fastener is compressible from its normal, uncompressed diameter for insertion in a smaller joint aperture, said dowel fastener having sufficient resilency for secure frictional engagement of said exterior gripping surface with the sides of the joint apertures,
A method for analyzing a multi-chamber plate, wherein the method comprises the following steps: - displacing at least one imaging device and the multi-chamber plate relative to each other along at least one axis; - imaging at least one first partial image of at least one first partial region of the multi-chamber plate and at least one second partial image of at least one second partial region of the multi-chamber plate, wherein the first partial region and the second partial region are one or both of adjacent or overlapping partial regions of the multi-chamber plate; - adjusting an orientation of one or both of the multi-chamber plate or the imaging device such that at least one contour line is observable in both the first partial region and the second partial region; - forming at least one composite image from the first partial image and the second partial image by matching the first partial image and second partial image by using the contour line. - displacing at least one imaging device and the multi-chamber plate relative to each other along at least one axis; - imaging at least one first partial image of at least one first partial region of the multi-chamber plate and at least one second partial image of at least one second partial region of the multi-chamber plate, wherein the first partial region and the second partial region are one or both of adjacent or overlapping partial regions of the multi-chamber plate; - adjusting an orientation of one or both of the multi-chamber plate or the imaging device such that at least one contour line is observable in both the first partial region and the second partial region; - forming at least one composite image from the first partial image and the second partial image by matching the first partial image and second partial image by using the contour line.
Modular element for distributing pressurised gas, comprising a housing containing at least one pressurised gas tank, the at least one tank being provided with an outlet orifice connected, via a pressure reducing valve, to a gas distribution circuit (15, 5), characterised in that the modular element comprises a cover for the housing, the cover selectively closing an open face of the housing and forming a support for a first and a second gas pipe forming at least part of the gas distribution circuit (15, 5), the first gas pipe being provided with a first free end and a second free end each provided with a fluid connection member, the second gas pipe being provided with a first free end provided with a fluid connection member connected, in a selectively detachable manner, to an inlet for depressurised gas coming from the pressure reducing valve of the at least one tank and a second end connected to the first pipe, between the two ends (50, 51) of the first pipe.
Method for treatment a medical device made from a NiTi alloy, such as stent or the like, comprising: • Mounting said device made from NiTi alloys into a reaction chamber; • Evacuating said reaction chamber to achieve pressure below atmospheric pressure, preferably in a range between about 0.1 Pa to about 1 Pa; • Leaking hydrogen gas into said reaction chamber during continuous pumping of said reaction chamber so that the pressure in the said reaction chamber is between 1 and 100 000 Pa, preferably between 10 and 1000 Pa; • Establishing an electrical discharge in the said reaction chamber filled with said hydrogen; • Reacting said device made from NiTi alloys with gaseous particles created in hydrogen upon excitation of said hydrogen molecules by said electrical discharge until the native oxide is eliminated; • Introducing neutral oxygen atoms into said reaction chamber; • Simultaneously reacting said device made from NiTi alloys with said neutral oxygen atoms in said reaction chamber and with gaseous particles created in hydrogen upon excitation of said hydrogen by said electrical discharge until a titanium oxide film is established on the surface of said device made from NiTi alloys; and • Turning off said electrical discharge in said treatment chamber, closing inlet of said gases and venting said treatment chamber with essentially dry air. • Mounting said device made from NiTi alloys into a reaction chamber; • Evacuating said reaction chamber to achieve pressure below atmospheric pressure, preferably in a range between about 0.1 Pa to about 1 Pa; • Leaking hydrogen gas into said reaction chamber during continuous pumping of said reaction chamber so that the pressure in the said reaction chamber is between 1 and 100 000 Pa, preferably between 10 and 1000 Pa; • Establishing an electrical discharge in the said reaction chamber filled with said hydrogen; • Reacting said device made from NiTi alloys with gaseous particles created in hydrogen upon excitation of said hydrogen molecules by said electrical discharge until the native oxide is eliminated; • Introducing neutral oxygen atoms into said reaction chamber; • Simultaneously reacting said device made from NiTi alloys with said neutral oxygen atoms in said reaction chamber and with gaseous particles created in hydrogen upon excitation of said hydrogen by said electrical discharge until a titanium oxide film is established on the surface of said device made from NiTi alloys; and • Turning off said electrical discharge in said treatment chamber, closing inlet of said gases and venting said treatment chamber with essentially dry air.
A composition comprising a mixture which comprises: (i) sodium alginate; (ii) calcium carbonate; (iii) sodium bicarbonate; (iv) the digestive enzyme actinidin from Actinidia chinensis Planch (Kiwi) dry fruit extract, having a content of actinidin of 16000 CDU/g, and (v) liquorice (Glycyrrhiza glaba L.) in the form of a dry root extract containing 3% glycyrrhizic acid. (i) sodium alginate; (ii) calcium carbonate; (iii) sodium bicarbonate; (iv) the digestive enzyme actinidin from Actinidia chinensis Planch (Kiwi) dry fruit extract, having a content of actinidin of 16000 CDU/g, and (v) liquorice (Glycyrrhiza glaba L.) in the form of a dry root extract containing 3% glycyrrhizic acid.
A method for manufacturing a preform for a turbomachine component using a weaving installation comprising at least a first delivery roll and a take-up roll, the method comprising the following steps: - feeding the weaving installation with weft (Tn) and warp (Cn) filaments, - weaving the weft and warp filaments together to form the preform, - driving the preform in a direction of travel towards the take-up roll which applies a predetermined tension on the preform, and - winding and storing the preform around the take-up roll, characterised in that it comprises a step of immobilising the preform on the first delivery roll arranged upstream of the take-up roll in the direction of travel of the preform when the installation is stopped. - feeding the weaving installation with weft (Tn) and warp (Cn) filaments, - weaving the weft and warp filaments together to form the preform, - driving the preform in a direction of travel towards the take-up roll which applies a predetermined tension on the preform, and - winding and storing the preform around the take-up roll, characterised in that it comprises a step of immobilising the preform on the first delivery roll arranged upstream of the take-up roll in the direction of travel of the preform when the installation is stopped.
A Bluetooth temperature measuring probe with improved mounting stability of the temperature measuring probe, characterized by comprising: a needle tube having a hollow mounting chamber, wherein the needle tube has a head end and a tail end along a length direction thereof; a handle configured to abut against the tail end of the needle tube; a first thermal sensor configured for measuring temperature, wherein the first thermal sensor is positioned in the mounting chamber of the needle tube close to the head end; an antenna configured for transmitting signals, wherein the antenna is mounted inside the needle tube and electrically connected to the first thermal sensor; and a locking assembly configured for connecting the handle to the needle tube, and locking the handle and the needle tube with each other, wherein the locking assembly comprises a locking member, and a locking nut, wherein the locking nut is connected to the antenna; characterised in that the locking assembly further comprises two limiting nuts; the two limiting nuts are connected to the antenna; the locking member is limited between the two limiting nuts; an inner wall of the needle tube is defined with a locking slot configured for snap-in of the locking member; and the locking nut cooperates with the two limiting nuts, such that the handle abuts against the tail end of the needle tube, so that a high stability mounting of the handle can be achieved. a needle tube having a hollow mounting chamber, wherein the needle tube has a head end and a tail end along a length direction thereof; a handle configured to abut against the tail end of the needle tube; a first thermal sensor configured for measuring temperature, wherein the first thermal sensor is positioned in the mounting chamber of the needle tube close to the head end; an antenna configured for transmitting signals, wherein the antenna is mounted inside the needle tube and electrically connected to the first thermal sensor; and a locking assembly configured for connecting the handle to the needle tube, and locking the handle and the needle tube with each other, wherein the locking assembly comprises a locking member, and a locking nut, wherein the locking nut is connected to the antenna; characterised in that the locking assembly further comprises two limiting nuts; the two limiting nuts are connected to the antenna; the locking member is limited between the two limiting nuts; an inner wall of the needle tube is defined with a locking slot configured for snap-in of the locking member; and the locking nut cooperates with the two limiting nuts, such that the handle abuts against the tail end of the needle tube, so that a high stability mounting of the handle can be achieved.
A reconfigurable filter circuit (400, 500) comprising: a first path including a transimpedance amplifier, TIA, (403, 504) having an input that is configured to receive an input current and an output configured to output a voltage; and a switchable feedback path including a first low-pass filter (410, 510)) coupled to an output of the TIA (403, 504) and a first switch (408a, 408b, 508a, 508b) coupled between an output of the first low-pass filter (410, 510) and the input of the TIA (403, 504), the first switch (408a, 408b, 508a, 508b) configured to couple the switchable feedback path to provide a feedback current to the first path resulting in a bandpass response in the output voltage when the first switch (408a, 408b, 508a, 508b) is closed and a low-pass response in the output voltage when the first switch (408a, 408b, 508a, 508b) is open. a first path including a transimpedance amplifier, TIA, (403, 504) having an input that is configured to receive an input current and an output configured to output a voltage; and a switchable feedback path including a first low-pass filter (410, 510)) coupled to an output of the TIA (403, 504) and a first switch (408a, 408b, 508a, 508b) coupled between an output of the first low-pass filter (410, 510) and the input of the TIA (403, 504), the first switch (408a, 408b, 508a, 508b) configured to couple the switchable feedback path to provide a feedback current to the first path resulting in a bandpass response in the output voltage when the first switch (408a, 408b, 508a, 508b) is closed and a low-pass response in the output voltage when the first switch (408a, 408b, 508a, 508b) is open.
A coating-forming composition for an electrical steel sheet comprising colloidal silica, a phosphate, phenylphosphonic acid or a salt thereof, and an aqueous medium.
A valve device comprising: a housing in which a valve path is defined; plural valve bodies (45, 46) displaceably held in said housing for opening and closing said valve path; seat portions each comprising a soft material for said respective valve bodies (45, 46) to be pressed thereon; and a single common seat block provided for said plural valve bodies (45, 46) to be pressed thereon, wherein said seat block comprises a base comprising a hard material, and seat-forming members (99, 100) fitted on said base to form said seat portions each comprising the soft material, and wherein said seat-portions are provided at respective axial end portions of the base; characterized in that the single common seat block is fixed to said housing and not integral with the housing. a housing in which a valve path is defined; plural valve bodies (45, 46) displaceably held in said housing for opening and closing said valve path; seat portions each comprising a soft material for said respective valve bodies (45, 46) to be pressed thereon; and a single common seat block provided for said plural valve bodies (45, 46) to be pressed thereon, wherein said seat block comprises a base comprising a hard material, and seat-forming members (99, 100) fitted on said base to form said seat portions each comprising the soft material, and wherein said seat-portions are provided at respective axial end portions of the base; characterized in that the single common seat block is fixed to said housing and not integral with the housing.
A signal processor (74, 84) configured to output a first output signal, a second output signal and a third output signal in response to an input of a first input signal, a second input signal and a third input signal, characterized in that the signal processor is configured: to process the first input signal by a first transfer function, process the second input signal by a second transfer function, process the third input signal by a third transfer function, and add the three results to obtain the first output signal; to process the first input signal by the third transfer function, process the second input signal by the first transfer function, process the third input signal by the second transfer function, and add the three results to obtain the second output signal; to process the first input signal by the second transfer function, process the second input signal by the third transfer function, process the third input signal by the first transfer function, and add the three results to obtain the third output signal; the first transfer function, the second transfer function and the third transfer function being expressed by: G 1 s = F s + jω 0 + F s − jω 0 3 G 2 s = − 1 ∓ 3 j ⋅ F s + jω 0 + − 1 ± 3 j ⋅ F s − jω 0 6 G 3 s = − 1 ± 3 j ⋅ F s + jω 0 + − 1 ∓ 3 j ⋅ F s − jω 0 6 where F(s) represents a transfer function expressing a predetermined process, ω 0 represents a predetermined angular frequency and j represents an imaginary unit. to process the first input signal by a first transfer function, process the second input signal by a second transfer function, process the third input signal by a third transfer function, and add the three results to obtain the first output signal; to process the first input signal by the third transfer function, process the second input signal by the first transfer function, process the third input signal by the second transfer function, and add the three results to obtain the second output signal; to process the first input signal by the second transfer function, process the second input signal by the third transfer function, process the third input signal by the first transfer function, and add the three results to obtain the third output signal; the first transfer function, the second transfer function and the third transfer function being expressed by: G 1 s = F s + jω 0 + F s − jω 0 3 G 2 s = − 1 ∓ 3 j ⋅ F s + jω 0 + − 1 ± 3 j ⋅ F s − jω 0 6 G 3 s = − 1 ± 3 j ⋅ F s + jω 0 + − 1 ∓ 3 j ⋅ F s − jω 0 6