mhurhangee/ep-ind-claims huggingface dataset:
Artificial nucleic acid molecule comprising a) at least one open reading frame; and b) a 3'-untranslated region (3'-UTR) comprising two separate poly sequences, wherein a poly sequence is a sequence of 20 to 400 adenine nucleotides and wherein the first and/or the second poly sequence comprises at least 60 adenine nucleotides, wherein the artificial nucleic acid molecule is an mRNA molecule having at least one open reading frame encoding an antigen selected from a pathogenic antigen, a tumour antigen, an allergenic antigen and an autoimmune antigen, wherein the artificial nucleic acid molecule is associated with or complexed with a cationic or polycationic compound or with a polymeric carrier, and wherein the G/C content of the open reading frame is increased compared to the wild type open reading frame. a) at least one open reading frame; and b) a 3'-untranslated region (3'-UTR) comprising two separate poly sequences, wherein a poly sequence is a sequence of 20 to 400 adenine nucleotides and wherein the first and/or the second poly sequence comprises at least 60 adenine nucleotides, wherein the artificial nucleic acid molecule is an mRNA molecule having at least one open reading frame encoding an antigen selected from a pathogenic antigen, a tumour antigen, an allergenic antigen and an autoimmune antigen, wherein the artificial nucleic acid molecule is associated with or complexed with a cationic or polycationic compound or with a polymeric carrier, and wherein the G/C content of the open reading frame is increased compared to the wild type open reading frame.
A method for Low-Density Parity Check processing of blocks of data bits comprising performing binary operations over each block of data based on a parity check matrix and encoding each block of data bits into a codeword having a number of bits, whereby the number of bits of the codeword defines the codeword length, whereby the method supports a maximum codeword length, whereby the parity check matrix is partitioned into a first level circulant blocks, and the first level circulant blocks are further partitioned into a second level circulant blocks and the second level circulant blocks are further partitioned into a third level circulant blocks, whereby each one of the circulant blocks of the first level, the second level and the third level is established by cyclic permutation of a diagonal or anti-diagonal matrix and is defined by a single shift parameter, whereby the binary operations include consecutive shifting operations, with each one of the shifting operations being associated with each one of the shift parameters of the first level blocks or the shift parameters of the second level blocks or the shift parameters of the third level blocks respectively, whereby the codeword length is controlled by the size of the the partition of the second level circulant blocks into third level circulant blocks, and whereby the method further comprises a) selecting the size of the partition of the second level circulant blocks into third level circulant blocks to select the codeword length for the encoding of each block of data bits, b) determining the shift parameters of the second level block using the shift parameters of the second level blocks that are associated with the said maximum codeword length and the said size of partition of the second level circulant blocks into third level circulant blocks for the selection of the codeword length and c) determining the shift parameters zm of the second level circulant blocks that are partitioned into m×m third level circulant blocks from the shift parameters zn of the second level circulant blocks that are partitioned into n×n third level circulant blocks, where n equals 2 times m, by the following equation: zm = sign zn ⋅ floor zn − 1 2 + 1 where sign is the sign operation and floor is the floor operation of a real number, i.e. the larger integer not greater than the real number.
System comprising: an endoscope including: a shaft and a handle portion; an imager; a light source located in the handle portion; and a light path adapted to transmit illuminating light provided by the light source down to a distal end of the shaft to illuminate an area ahead of the shaft; an endoscope transceiver coupled to and providing power to said imager and said light source; and a control unit coupled to a network and adapted to control said endoscope, wherein the control unit comprises a control unit transceiver generating a resonant magnetic field; said imager generating a video image data stream that is wirelessly transmitted to the control unit; and said endoscope transceiver tuned to said resonant magnetic field such that resonant interaction occurs between said endoscope transceiver and said control unit transceiver, and said power to operate the imager and the light source is transmitted to said endoscope transceiver via said resonant interaction. an endoscope including: a shaft and a handle portion; an imager; a light source located in the handle portion; and a light path adapted to transmit illuminating light provided by the light source down to a distal end of the shaft to illuminate an area ahead of the shaft; an endoscope transceiver coupled to and providing power to said imager and said light source; and a shaft and a handle portion; an imager; a light source located in the handle portion; and a light path adapted to transmit illuminating light provided by the light source down to a distal end of the shaft to illuminate an area ahead of the shaft; an endoscope transceiver coupled to and providing power to said imager and said light source; and a control unit coupled to a network and adapted to control said endoscope, wherein the control unit comprises a control unit transceiver generating a resonant magnetic field; said imager generating a video image data stream that is wirelessly transmitted to the control unit; and said endoscope transceiver tuned to said resonant magnetic field such that resonant interaction occurs between said endoscope transceiver and said control unit transceiver, and said power to operate the imager and the light source is transmitted to said endoscope transceiver via said resonant interaction.
An imaging system, comprising: an x-ray source arranged to expose human tissue to radiation at pre-diagnostic dose levels; an x-ray detector arranged to detect the radiation; a pre-diagnostic imaging module configured to generate a pre-diagnostic image of the human tissue, wherein the pre-diagnostic image is an automated exposure control scout image; and a position analysis module arranged to receive the pre-diagnostic image and determine whether the human tissue in the pre-diagnostic image is in a predetermined position based upon one or more predefined positioning criteria, wherein the predefined criteria are compared to one or more detected anatomical landmarks, wherein the imaging system is configured to automatically interrupt a diagnostic image procedure or to automatically take a diagnostic image based upon the determination of the position analysis module. an x-ray source arranged to expose human tissue to radiation at pre-diagnostic dose levels; an x-ray detector arranged to detect the radiation; a pre-diagnostic imaging module configured to generate a pre-diagnostic image of the human tissue, wherein the pre-diagnostic image is an automated exposure control scout image; and a position analysis module arranged to receive the pre-diagnostic image and determine whether the human tissue in the pre-diagnostic image is in a predetermined position based upon one or more predefined positioning criteria, wherein the predefined criteria are compared to one or more detected anatomical landmarks, wherein the imaging system is configured to automatically interrupt a diagnostic image procedure or to automatically take a diagnostic image based upon the determination of the position analysis module.
A composition comprising a discoidal high density lipoprotein nanoparticle, the nanoparticle comprising Apolipoprotein 1 (ApoAl) and one or more phospholipids, wherein the nanoparticle is radiolabeled with a radioisotope via incorporation of a chelator-modified ApoAl with the radioisotope; and optionally incorporation of a chelator-modified phospholipid with the radioisotope.
A stacking-type header comprising: a first plate-shaped unit having a plurality of first outlet flow passages formed therein; and a second plate-shaped unit stacked on the first plate-shaped unit and having a first inlet flow passage formed therein and a distribution flow passage formed therein, the distribution flow passage being configured to distribute refrigerant, which passes through the first inlet flow passage to flow into the second plate-shaped unit, to the plurality of first outlet flow passages to cause the refrigerant to flow out from the second plate-shaped unit, wherein the distribution flow passage includes at least one branching flow passage, wherein the second plate-shaped unit has at least one first plate-shaped member, the stacking-type header being characterized by the first plate-shaped member having at least one first projection formed by press working, the first projection projecting in a direction in which the second plate-shaped unit is stacked on the first plate-shaped unit, and wherein the branching flow passage is formed by closing a region in an inside of the first projection other than a region where the refrigerant flows in and a region where the refrigerant flows out. a first plate-shaped unit having a plurality of first outlet flow passages formed therein; and a second plate-shaped unit stacked on the first plate-shaped unit and having a first inlet flow passage formed therein and a distribution flow passage formed therein, the distribution flow passage being configured to distribute refrigerant, which passes through the first inlet flow passage to flow into the second plate-shaped unit, to the plurality of first outlet flow passages to cause the refrigerant to flow out from the second plate-shaped unit, wherein the distribution flow passage includes at least one branching flow passage, wherein the second plate-shaped unit has at least one first plate-shaped member, the stacking-type header being characterized by the first plate-shaped member having at least one first projection formed by press working, the first projection projecting in a direction in which the second plate-shaped unit is stacked on the first plate-shaped unit, and wherein the branching flow passage is formed by closing a region in an inside of the first projection other than a region where the refrigerant flows in and a region where the refrigerant flows out.
A spring element, in particular for use in an innerspring mattress or in an undermattress, comprising a base, a cover plate and a spring body arranged between the base and the cover plate, wherein the cover plate comprises at least two parts which move away from one another transversely to the spring direction on the deflection of the spring element, characterized in that the cover plate parts are each provided with a coupling element; and in that a connection element is provided which is coupled to or couplable to the coupling element, which connects at least two cover plate parts to one another and which selectively more or less bounds the path of the cover plate parts relative to one another and/or selectively opposes the movement with a more or less large counter-force.
A drying apparatus for drying a material, comprising: a blowing mechanism having an air-outlet channel for conveying dry gas to the material; and a guide member movably arranged in the air-outlet channel and used for dividing the air-outlet channel into a first sub-air-outlet channel and a second sub-air-outlet channel, a first air outlet of the first sub-air-outlet channel and a second air outlet of the second sub-air-outlet channel both facing the material, wherein a rotation shaft is rotationally arranged in the air-outlet channel, the guide member is fixed on the rotation shaft, and when rotating with the rotation shaft, the guide member changes air outputs of the first air outlet and the second air outlet, and wherein the blowing mechanism comprises a first rotational connecting portion and a second rotational connecting portion arranged oppositely, the guide member is located between the first rotational connecting portion and the second rotational connecting portion, and the rotation shaft is rotationally connected to the first rotational connecting portion and the second rotational connecting portion; the drying apparatus being characterized in that a surface of the first rotational connecting portion protrudes to form a first arc-shaped protrusion, a surface of the second rotational connecting portion protrudes to form a second arc-shaped protrusion, the first arc-shaped protrusion and the second arc-shaped protrusion are arranged oppositely, and the rotation shaft is rotationally arranged on the first arc-shaped protrusion and the second arc-shaped protrusion respectively. a blowing mechanism having an air-outlet channel for conveying dry gas to the material; and a guide member movably arranged in the air-outlet channel and used for dividing the air-outlet channel into a first sub-air-outlet channel and a second sub-air-outlet channel, a first air outlet of the first sub-air-outlet channel and a second air outlet of the second sub-air-outlet channel both facing the material, wherein a rotation shaft is rotationally arranged in the air-outlet channel, the guide member is fixed on the rotation shaft, and when rotating with the rotation shaft, the guide member changes air outputs of the first air outlet and the second air outlet, and wherein the blowing mechanism comprises a first rotational connecting portion and a second rotational connecting portion arranged oppositely, the guide member is located between the first rotational connecting portion and the second rotational connecting portion, and the rotation shaft is rotationally connected to the first rotational connecting portion and the second rotational connecting portion; the drying apparatus being characterized in that a surface of the first rotational connecting portion protrudes to form a first arc-shaped protrusion, a surface of the second rotational connecting portion protrudes to form a second arc-shaped protrusion, the first arc-shaped protrusion and the second arc-shaped protrusion are arranged oppositely, and the rotation shaft is rotationally arranged on the first arc-shaped protrusion and the second arc-shaped protrusion respectively.
A method for the preparation of a compound of general formula comprising contacting a compound of general formula with an alcohol of general formula R 4 -OH and an acetal or an alkoxy-alkene or a ketone in the presence of an acid wherein X is halogen and wherein R 2 and R 3 each independently stand for an alkyl with 1 to 12 carbon atoms, an alkenyl with 1 to 12 carbon atoms, a cycloalkyl with 3 to 7 carbon atoms, a cycloalkenyl with 3 to 7 carbon atoms, an aryl with 6 to 10 carbon atoms or an aralkyl with 7 to 12 carbon atoms, wherein each of R 2 and R 3 may be substituted and wherein R 2 and R 3 may form a ring together with the carbon atom to which they are bound, characterized in that R 4 is allyl, iso- butenyl, n-butyl, sec -butyl, tert -butyl, 2-methyl-3-pentyl, 4-methyl-1-pentyl, 4-methyl-2-pentyl, n-propyl, iso -propyl or vinyl.
Stabilizer for polyolefins using phenolic antioxidants, characterised in that the phenolic antioxidants according to the structural formula are bound as side chains to a polymer, wherein X is [-CH 2 -Y-COCH=CH-], [-CH 2 -Y-CO-(CH 2) p -], or [-CH 2 Y-(CH 2) p -] where Y = S, O, or NH and where p = 0-10 and n = 1-8, m = 1-8, and o = 5-100.
Musical string for bowed and plucked instruments comprising a core and at least one sheath wound around that core, further comprising a polymer matrix between the core and the at least one wound sheath or between wound sheaths or both; wherein the polymer matrix comprises a polymeric binding agent and insoluble, nano-scale solid state particles embedded in the binding agent, wherein the polymer matrix is viscoelastic and configured for inducing a dampening effect by deformation of the viscoelastic polymer matrix during playing music characterized in that the nano-scale particles comprise at least one of the following: silicate, oxide, sulfate, carbonate.
Method for operating a hybrid drive device for a motor vehicle, which has a drive unit, an electric machine coupled to the drive unit via an epicyclic gear transmission and an output shaft which can be operatively connected to the epicyclic gear transmission via a clutch, wherein for providing electric power the electric machine is driven via the drive unit, wherein the epicyclic gear transmission has a first transmission element, a second transmission element and a third transmission element, wherein the first transmission element and the second transmission element are coupled to one another via at least one planet gear rotatably mounted on the third transmission element, wherein the drive unit, the electric machine and the output shaft are coupled or can be coupled to different transmission elements (12, 13, 14), characterised in that during the provision of electric power, the output shaft is braked or driven at least sometimes via a hydraulic unit.
An antenna device (100, 100', 100", 100"', 200) for a wireless terminal, the antenna device comprising: a radiator (111, 113', 211) configured to be extracted from/retracted into the wireless terminal; an L-C lumped circuit (131, 231); characterized by a noise removing coil (121, 221) electrically connected between the radiator and the L-C lumped circuit, to attenuate noise introduced through the radiator, wherein a capacitive element and an inductive element of the L-C lumped circuit are combined to form a low pass filter or a band pass filter by being coupled with the noise removing coil. a radiator (111, 113', 211) configured to be extracted from/retracted into the wireless terminal; an L-C lumped circuit (131, 231); characterized by a noise removing coil (121, 221) electrically connected between the radiator and the L-C lumped circuit, to attenuate noise introduced through the radiator, wherein a capacitive element and an inductive element of the L-C lumped circuit are combined to form a low pass filter or a band pass filter by being coupled with the noise removing coil.
A dart game apparatus comprising: a body part in which a dart target is installed on a front surface; a support unit including a coupling unit coupled to an upper side of the body part and an extension unit formed to extend toward a front surface of the coupling unit; characterized in that the apparatus comprises a lid unit rotatably coupled to the support unit through at least one hinge. a body part in which a dart target is installed on a front surface; a support unit including a coupling unit coupled to an upper side of the body part and an extension unit formed to extend toward a front surface of the coupling unit; characterized in that the apparatus comprises a lid unit rotatably coupled to the support unit through at least one hinge.
Method for plantation treatment of a plantation field, the method comprising: taking an image of a plantation of a plantation field; recognizing items on the taken image by running a first image recognition analysis of a first complexity on the taken image based on a stored parametrization of a machine learning algorithm; identifying an unsatisfying image analysis result; determining ambient data corresponding to the taken image; recognizing items on the taken image by running a second image recognition analysis of a second complexity on the image based on the ambient data on an external device, wherein the second complexity is higher than the first complexity; determining an improved parametrization based on the second image recognition analysis for the machine learning algorithm for improving the first image recognition analysis; and controlling - via a treatment control interface - a treatment arrangement of a treatment device based on the first image recognition analysis on the taken image based on the updated improved parametrization. taking an image of a plantation of a plantation field; recognizing items on the taken image by running a first image recognition analysis of a first complexity on the taken image based on a stored parametrization of a machine learning algorithm; identifying an unsatisfying image analysis result; determining ambient data corresponding to the taken image; recognizing items on the taken image by running a second image recognition analysis of a second complexity on the image based on the ambient data on an external device, wherein the second complexity is higher than the first complexity; determining an improved parametrization based on the second image recognition analysis for the machine learning algorithm for improving the first image recognition analysis; and controlling - via a treatment control interface - a treatment arrangement of a treatment device based on the first image recognition analysis on the taken image based on the updated improved parametrization.
A management method, for an electronic system having electronic devices (M1-M6) connected in a daisy-chain configuration, comprising: connecting, sequentially, the electronic devices (M1-M6) with a host, thereby obtaining universal unique identifiers corresponding to the electronic devices (M1-M6); characterised by generating serial numbers corresponding to the electronic devices (M1-M6) according to a first order of obtainment of the universal unique identifiers of the electronic devices (M1-M6); and communicating with the electronic devices (M1-M6) according to the serial numbers. connecting, sequentially, the electronic devices (M1-M6) with a host, thereby obtaining universal unique identifiers corresponding to the electronic devices (M1-M6); characterised by generating serial numbers corresponding to the electronic devices (M1-M6) according to a first order of obtainment of the universal unique identifiers of the electronic devices (M1-M6); and communicating with the electronic devices (M1-M6) according to the serial numbers.
Automatic device for emptying bags of frozen blood product, which comprises: - a product removal device; - a product reception hopper; - transport means for transporting the bag from a reception area to the product removal device; - cutting means located in the path of the bag between the reception area and the product removal device characterised in that the cutting means are housed in an oscillating support which comprises means suitable for absorbing the energy of the impacts of the bag against the cutting means and for returning said cutting means to their initial position and in that the means for transporting the bag are configured to modify their path depending on the shape of the bag. - a product removal device; - a product reception hopper; - transport means for transporting the bag from a reception area to the product removal device; - cutting means located in the path of the bag between the reception area and the product removal device