mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for automated objects manipulation to and from pallets, the apparatus comprising: a mobile base ; a plurality of pallet receivers (104A-N) mounted on one end of the mobile base, wherein each of the plurality of pallet receivers are configured to accommodate a pallet; a robotic manipulator mounted on other end of the mobile base ; characterized in that the apparatus comprises: a linear slider having a first double sided piston at a first end and a second double sided piston at the second end of the linear slider , wherein a first pallet receiver accommodates a first pallet in a first area, wherein the first pallet is locked by the linear slider , the first double sided piston and the second double sided piston , wherein the linear slider is configured to slide the first pallet from the first area to a second area of a second pallet receiver such that a second pallet is configured to occupy the first area; a plurality of sensors (108A-B) mounted on the mobile base; and wherein the robotic manipulator is in communication with the plurality of sensors (108A-B) for (i) navigating to a desired position and manipulating one or more objects placed on the first pallet and (ii) loading the manipulated one or more objects to a desired location, and wherein when the first pallet is empty, the first pallet is indexed to a bottom layer of the mobile base and the second pallet is moved to the second area, using a first piston pin of the first double sided piston and a second piston pin of the second double sided piston of the linear slider . a mobile base ; a plurality of pallet receivers (104A-N) mounted on one end of the mobile base, wherein each of the plurality of pallet receivers are configured to accommodate a pallet; a robotic manipulator mounted on other end of the mobile base ; characterized in that the apparatus comprises: a linear slider having a first double sided piston at a first end and a second double sided piston at the second end of the linear slider , wherein a first pallet receiver accommodates a first pallet in a first area, wherein the first pallet is locked by the linear slider , the first double sided piston and the second double sided piston , wherein the linear slider is configured to slide the first pallet from the first area to a second area of a second pallet receiver such that a second pallet is configured to occupy the first area; a plurality of sensors (108A-B) mounted on the mobile base; and wherein the robotic manipulator is in communication with the plurality of sensors (108A-B) for (i) navigating to a desired position and manipulating one or more objects placed on the first pallet and (ii) loading the manipulated one or more objects to a desired location, and wherein when the first pallet is empty, the first pallet is indexed to a bottom layer of the mobile base and the second pallet is moved to the second area, using a first piston pin of the first double sided piston and a second piston pin of the second double sided piston of the linear slider .
A computer-implemented method of designing a virome capture sequencing platform comprising oligonucleotides for the simultaneous detection, identification and/or characterization of all viruses known or suspected to infect vertebrates, comprising: a. obtaining nucleotide sequences of the genomes of at least one virus in each of the viral taxa listed in Table 1; b. extracting coding sequences from the nucleotide sequences obtained in step a, wherein coding sequences clustered at 80% identity are chosen for extraction; and c. breaking the coding sequences into fragments, wherein the fragments are 50 to 100 nucleotides in length, have about 90% sequence identity, and are tiled across the coding sequences at specific intervals to obtain sequence information to design oligonucleotides that selectively hybridize to genomes of all viruses that infect or are suspected of infecting vertebrates. a. obtaining nucleotide sequences of the genomes of at least one virus in each of the viral taxa listed in Table 1; b. extracting coding sequences from the nucleotide sequences obtained in step a, wherein coding sequences clustered at 80% identity are chosen for extraction; and c. breaking the coding sequences into fragments, wherein the fragments are 50 to 100 nucleotides in length, have about 90% sequence identity, and are tiled across the coding sequences at specific intervals to obtain sequence information to design oligonucleotides that selectively hybridize to genomes of all viruses that infect or are suspected of infecting vertebrates.
A mixed powder having polytetrafluoroethylene as a main component, which comprises (i) a high molecular weight polytetrafluoroethylene that can be fibrillated, (ii) a low molecular weight polytetrafluoroethylene, a thermosetting resin or an inorganic filler as a non-hot melt processable component that is not fibrillated, and (iii) a hot melt processable fluoro polymer, silicone, polystyrene, polyethylene terephthalate, polyester, polyamide, acrylic resin, urethane resin, or a mixture thereof as a hot melt processable component with a melting point of lower than 320°C that is not fibrillated, wherein the content of (ii) the non-hot melt processable component is 20 to 40% by weight of the total, and wherein (iii) the hot melt processable component that is not fibrillated is contained at being equal to or more than 0.1% by weight but less than 20% by weight of the total. (i) a high molecular weight polytetrafluoroethylene that can be fibrillated, (ii) a low molecular weight polytetrafluoroethylene, a thermosetting resin or an inorganic filler as a non-hot melt processable component that is not fibrillated, and (iii) a hot melt processable fluoro polymer, silicone, polystyrene, polyethylene terephthalate, polyester, polyamide, acrylic resin, urethane resin, or a mixture thereof as a hot melt processable component with a melting point of lower than 320°C that is not fibrillated,
A pocket spring mattress arrangement comprising: a pocket spring mattress having a plurality of pocketed units of coil springs individually arranged in pockets formed of a casing material, said pocket spring mattress having at least two parts (4a-c) of which at least one is a compactable part; at least one elongate actuation member extending perpendicular to a compacting direction for said compactable part(s), said compacting direction corresponding to a width or length direction of the mattress, and being embedded within the mattress between two of said parts, characterized in that said actuation member is moveable in the compacting direction to expand or contract at least one of the one or more compactable part(s) of the mattress, wherein the mattress has fixed outer dimensions, and wherein the mattress comprises at least two compactable parts (4a-c), wherein said elongate actuation member is arranged to contract one of said compactable parts while simultaneously expanding the other compactable part. a pocket spring mattress having a plurality of pocketed units of coil springs individually arranged in pockets formed of a casing material, said pocket spring mattress having at least two parts (4a-c) of which at least one is a compactable part; at least one elongate actuation member extending perpendicular to a compacting direction for said compactable part(s), said compacting direction corresponding to a width or length direction of the mattress, and being embedded within the mattress between two of said parts, characterized in that said actuation member is moveable in the compacting direction to expand or contract at least one of the one or more compactable part(s) of the mattress, wherein the mattress has fixed outer dimensions, and wherein the mattress comprises at least two compactable parts (4a-c), wherein said elongate actuation member is arranged to contract one of said compactable parts while simultaneously expanding the other compactable part.
Device for producing fluid foam comprising a container where the fluid can be accommodated, and a foaming tool being rotatable in the inner volume of the container ; such that the texture and the porosity of the fluid foam obtained are provided by shear energy coming from Couette Flow effect by the stationary bottom of the container and the rotating foaming tool , and depend on the dimension of the foaming tool with respect to the inner volume of the container , on the location of the foaming tool from the bottom of the container and on the rotation speed of the foaming tool , wherein the device further comprises one or a plurality of disturbing elements arranged on the lower side of the foaming tool and/or on the bottom of the container .
A method performed by a network node , the method comprising: defining , one or more parameters of a Coverage Enhanced Physical random access channel Configuration Index, CE PCI, for one or more Physical Random Access Channel, PRACH, resource sets, each of the one or more PRACH resource sets is associated with a coverage level whereby a different CE PCI is defined for each coverage level, configuring the one or more PRACH resource sets in a broadcast message, wherein configuring comprises broadcasting one or more CE PCIs, receiving a random access preamble from the UE , assigning a starting subframe number to a PRACH resource set used by a User Equipment, UE, based on the PRACH resource set associated coverage level, calculating a Random Access Radio Network Temporary Identifier, RA-RNTI, using the assigned starting subframe number, and transmitting to the UE , a random access response identified by the calculated RA-RNTI, wherein the starting subframe number indicates one of X starting opportunities in a Y-ms period, where Y = X ∗ PRACH repetition level. defining , one or more parameters of a Coverage Enhanced Physical random access channel Configuration Index, CE PCI, for one or more Physical Random Access Channel, PRACH, resource sets, each of the one or more PRACH resource sets is associated with a coverage level whereby a different CE PCI is defined for each coverage level, configuring the one or more PRACH resource sets in a broadcast message, wherein configuring comprises broadcasting one or more CE PCIs, receiving a random access preamble from the UE , assigning a starting subframe number to a PRACH resource set used by a User Equipment, UE, based on the PRACH resource set associated coverage level, calculating a Random Access Radio Network Temporary Identifier, RA-RNTI, using the assigned starting subframe number, and transmitting to the UE , a random access response identified by the calculated RA-RNTI, wherein the starting subframe number indicates one of X starting opportunities in a Y-ms period, where Y = X ∗ PRACH repetition level.
An ethylene-vinyl alcohol copolymer composition comprising: (A) an ethylene-vinyl alcohol copolymer; (B) an antioxidant; and (C) an iron compound; characterized in that the ethylene-vinyl alcohol copolymer (A) has an ethylene structural unit content of 20 to 60 mol%, wherein the ethylene structural unit content is measured in conformity with ISO14663; and the iron compound (C) is present in an amount of 0.01 to 20 ppm on a metal basis based on the weight of the ethylene-vinyl alcohol copolymer composition. (A) an ethylene-vinyl alcohol copolymer; (B) an antioxidant; and (C) an iron compound; characterized in that the ethylene-vinyl alcohol copolymer (A) has an ethylene structural unit content of 20 to 60 mol%, wherein the ethylene structural unit content is measured in conformity with ISO14663; and the iron compound (C) is present in an amount of 0.01 to 20 ppm on a metal basis based on the weight of the ethylene-vinyl alcohol copolymer composition.
A topical composition comprising phytantriol and p-hydroxyacetophenone, wherein the ratio (w/w) of phytantriol to p-hydroxyacetophenone is 1.5:1 to 3:1.
Poly(ether-ketone-ketone) powder comprising a weight content of from 1 to 10 ppm of Fe.
A method of removing, adsorbing, separating, storing or sequestering a metal from an aqueous fluid stream which comprises contacting an aqueous fluid stream with a polyamine phosphorus dendrimer (P-dendrimer) having the formula I wherein W is a phosphorus based dendrimer core; X is a polyfunctional aromatic linker; Y may be present or absent and if present is a polyfunctional amino phosphoryl group linked to the polyfunctional aromatic linker; Z is a diamino alkyl group, a polyalkyl amino group, a polyethyleneimine having a Mw ranging from 400 to about 1,000,000, or a polypropyleneimine; j and k are numerical values corresponding to the branch point multiplicity and whose values independently range from 1 to 10; and l is a numerical value corresponding to the branch point multiplicity and whose values ranges from 2 to 10; so as to remove, adsorb, separate, store or sequester the metal from the aqueous fluid stream.
A digital predistortion processing apparatus, comprising a digital predistortion processor, a precoding and baseband signal conversion part, a feedback signal conversion part, a deprecoder, and a predistortion parameter calculation part, wherein the digital predistortion processor is configured to: receive a first baseband signal, perform digital predistortion processing on the first baseband signal based on a predistortion parameter to obtain a second baseband signal, and send the second baseband signal to the precoding and baseband signal conversion part; the precoding and baseband signal conversion part is configured to: perform precoding and baseband signal conversion on the second baseband signal to obtain N channels of precoded radio frequency signals, and send the N channels of precoded radio frequency signals to power amplifiers, wherein N>1; the feedback signal conversion part is configured to: couple N channels of radio frequency signals amplified by the power amplifiers to a feedback link, convert N channels of radio frequency signals in the feedback link into N channels of third baseband signals, and send the N channels of third baseband signals to the deprecoder; the deprecoder is configured to: deprecode the N channels of third baseband signals to obtain a fourth baseband signal, and send the fourth baseband signal to the predistortion parameter calculation part; and the predistortion parameter calculation part is configured to: calculate a predistortion parameter based on the first baseband signal and the fourth baseband signal, and send the predistortion parameter obtained through calculation to the digital predistortion processor. the digital predistortion processor is configured to: receive a first baseband signal, perform digital predistortion processing on the first baseband signal based on a predistortion parameter to obtain a second baseband signal, and send the second baseband signal to the precoding and baseband signal conversion part; the precoding and baseband signal conversion part is configured to: perform precoding and baseband signal conversion on the second baseband signal to obtain N channels of precoded radio frequency signals, and send the N channels of precoded radio frequency signals to power amplifiers, wherein N>1; the feedback signal conversion part is configured to: couple N channels of radio frequency signals amplified by the power amplifiers to a feedback link, convert N channels of radio frequency signals in the feedback link into N channels of third baseband signals, and send the N channels of third baseband signals to the deprecoder; the deprecoder is configured to: deprecode the N channels of third baseband signals to obtain a fourth baseband signal, and send the fourth baseband signal to the predistortion parameter calculation part; and the predistortion parameter calculation part is configured to: calculate a predistortion parameter based on the first baseband signal and the fourth baseband signal, and send the predistortion parameter obtained through calculation to the digital predistortion processor.
A device for determining at least one final two-dimensional image, wherein the device comprises: - an input interface ; - a processing unit ; wherein the input interface is configured to receive a three-dimensional image of a body region of a patient body, wherein an applicator configured for fixating at least one radiation source is inserted into the body region; wherein the processing unit is configured to randomly determine an initial direction within the three-dimensional image , to receive a signal representing the initial direction via the input interface or to access a predefined direction as the initial direction ; wherein the processing unit is configured to repeat the following sequence of steps s1) to s4): s1) to determine a set-direction within the three-dimensional image based on the initial direction for the first sequence or based on a probability map determined during a previous sequence; s2) to extract an image-set of two-dimensional images from the three-dimensional image , such that the two-dimensional images of the image-set are arranged coaxially and subsequently in the set-direction ; s3) to apply an applicator pre-trained classification method to each of the two-dimensional images of the image-set resulting in a probability score for each of the two-dimensional images of the image-set indicating a probability of the applicator being depicted, in particular fully depicted, in the respective two-dimensional image of the image-set in a cross-sectional view; and s4) to determine a probability-map representing the probability scores of the two-dimensional images of the image-set with respect to the set-direction ; wherein the processing unit is configured to determine, after finishing the last sequence, the two-dimensional image associated with the highest probability score, in particular from the image-set determined during the last sequence, as the final two-dimensional image. - an input interface ; - a processing unit ; s1) to determine a set-direction within the three-dimensional image based on the initial direction for the first sequence or based on a probability map determined during a previous sequence; s2) to extract an image-set of two-dimensional images from the three-dimensional image , such that the two-dimensional images of the image-set are arranged coaxially and subsequently in the set-direction ; s3) to apply an applicator pre-trained classification method to each of the two-dimensional images of the image-set resulting in a probability score for each of the two-dimensional images of the image-set indicating a probability of the applicator being depicted, in particular fully depicted, in the respective two-dimensional image of the image-set in a cross-sectional view; and s4) to determine a probability-map representing the probability scores of the two-dimensional images of the image-set with respect to the set-direction ;
A method to exchange data in a networked system , comprising: storing, by a web browser executed by a client device , a client device profile comprising a plurality of client device parameters and processor-executable instructions to generate a content request in a restricted environment of the client device, wherein the restricted environment is associated with a content server ; transmitting, by the web browser, a content item parameter to the restricted environment stored on the client device based on the web browser receiving a web page; generating, by the web browser executing the processor-executable instructions stored in the restricted environment, a parameter list based on the client device profile and the content item parameter; transmitting, by the web browser, the parameter list to a proxy server ; and the method further characterized by : receiving, by the web browser, a content item to render in a content slot of the web page based on the proxy server determining an aggregate value of at least one parameter in the parameter list satisfies a predetermined threshold. storing, by a web browser executed by a client device , a client device profile comprising a plurality of client device parameters and processor-executable instructions to generate a content request in a restricted environment of the client device, wherein the restricted environment is associated with a content server ; transmitting, by the web browser, a content item parameter to the restricted environment stored on the client device based on the web browser receiving a web page; generating, by the web browser executing the processor-executable instructions stored in the restricted environment, a parameter list based on the client device profile and the content item parameter; transmitting, by the web browser, the parameter list to a proxy server ; and the method further characterized by : receiving, by the web browser, a content item to render in a content slot of the web page based on the proxy server determining an aggregate value of at least one parameter in the parameter list satisfies a predetermined threshold.
A solar cell comprising: a semiconductor substrate ; a tunneling layer formed over a back surface of the semiconductor substrate; an emitter area formed of a semiconductor layer including a single semiconductor material disposed over the tunneling layer, the emitter area being of a first conductive type opposite to a conductive type of the semiconductor substrate ; a front surface field area formed of a metal oxide layer and disposed on a front surface of the semiconductor substrate , the front surface field area being of a second conductive type opposite to the first conductive type; a first electrode connected to the emitter area ; and a second electrode connected to the front surface field area , wherein the front surface field area has a smaller light absorption coefficient than the emitter area , wherein the metal oxide in the metal oxide layer comprises indium, gallium, and zinc, and wherein, in the front surface field area , the amount of indium is greater than each of the amount of gallium, the amount of zinc, and the amount of oxygen. a semiconductor substrate ; a tunneling layer formed over a back surface of the semiconductor substrate; an emitter area formed of a semiconductor layer including a single semiconductor material disposed over the tunneling layer, the emitter area being of a first conductive type opposite to a conductive type of the semiconductor substrate ; a front surface field area formed of a metal oxide layer and disposed on a front surface of the semiconductor substrate , the front surface field area being of a second conductive type opposite to the first conductive type; a first electrode connected to the emitter area ; and a second electrode connected to the front surface field area , wherein the front surface field area has a smaller light absorption coefficient than the emitter area , wherein the metal oxide in the metal oxide layer comprises indium, gallium, and zinc, and wherein, in the front surface field area , the amount of indium is greater than each of the amount of gallium, the amount of zinc, and the amount of oxygen.