mhurhangee/ep-ind-claims huggingface dataset:
A camera, comprising: a main lens which receives light from objects in an object field and directs the received light onto an image plane of the camera; a photodetector array located at the image plane of the camera, which captures the received light to produce an image; and a multidimensional array of optical elements located between the object field and the main lens, wherein each of the optical elements comprises a lens, wherein each optical element in the multidimensional array receives light from the object field from a different angle than the other optical elements in the multidimensional array of optical elements and consequently directs a different view of the object field into the main lens, whereby the photodetector array receives a different view of the object field from each optical element in the multidimensional array of optical elements. a main lens which receives light from objects in an object field and directs the received light onto an image plane of the camera; a photodetector array located at the image plane of the camera, which captures the received light to produce an image; and a multidimensional array of optical elements located between the object field and the main lens, wherein each of the optical elements comprises a lens, wherein each optical element in the multidimensional array receives light from the object field from a different angle than the other optical elements in the multidimensional array of optical elements and consequently directs a different view of the object field into the main lens, whereby the photodetector array receives a different view of the object field from each optical element in the multidimensional array of optical elements.
A light emitting diode structure comprising: a plurality of LED layers including a first cladding layer, an active layer, and a second cladding layer grown on a growth substrate, the first cladding layer being of a first conductivity type, and the second cladding layer being of an opposite second conductivity type; a porous semiconductor layer overlying the second cladding layer, the porous semiconductor layer containing pores having a sub-micron minimum diameter, the pores having characteristics that diffuse light generated by the active layer; a first metal, directly overlying the porous semiconductor layer, that electrically contacts the second cladding layer such that a majority of current flows between the first metal and the second cladding layer without being substantially conducted through porous areas of the porous semiconductor layer; a second metal (46, 64) electrically contacting the first cladding layer; and metal-filled vias through the porous semiconductor layer to allow the first metal to electrically contact the second cladding layer. a plurality of LED layers including a first cladding layer, an active layer, and a second cladding layer grown on a growth substrate, the first cladding layer being of a first conductivity type, and the second cladding layer being of an opposite second conductivity type; a porous semiconductor layer overlying the second cladding layer, the porous semiconductor layer containing pores having a sub-micron minimum diameter, the pores having characteristics that diffuse light generated by the active layer; a first metal, directly overlying the porous semiconductor layer, that electrically contacts the second cladding layer such that a majority of current flows between the first metal and the second cladding layer without being substantially conducted through porous areas of the porous semiconductor layer; a second metal (46, 64) electrically contacting the first cladding layer; and metal-filled vias through the porous semiconductor layer to allow the first metal to electrically contact the second cladding layer.
A process for the polymerization of one or more polymerizable C 2 to C 10 alpha-olefin monomers to form a block copolymer comprising two or more regions or segments of differentiated polymer composition or properties, the process comprising: feeding a first mixture that includes a chain shuttling agent, a solvent, the one or more C 2 to C 10 alpha-olefin polymerizable monomers, and optionally hydrogen into a first reactor or reactor zone; feeding a second mixture that includes at least one olefin polymerization catalyst and at least one cocatalyst into the first reactor or reactor zone, the second mixture being separate from the first mixture prior to entering the first reactor or reactor zone; contacting the first mixture and the second mixture under polymerization conditions in the first reactor or reactor zone to form a reaction mixture that is characterized by the formation of polymer chains from the one or more polymerizable C 2 to C 10 alpha-olefin monomers; providing the reaction mixture to a second reactor or reactor zone and optionally adding one or more additional solvents, polymerizable C 2 to C 10 alpha-olefin monomers, and/or catalysts; and allowing polymerization to occur in at least one of the first reactor or reactor zone and the second reactor or reactor zone to form polymer chains that are differentiated from the polymer chains formed in, such that the resultant polymer molecules comprise two or more chemically or physically distinguishable blocks. feeding a first mixture that includes a chain shuttling agent, a solvent, the one or more C 2 to C 10 alpha-olefin polymerizable monomers, and optionally hydrogen into a first reactor or reactor zone; feeding a second mixture that includes at least one olefin polymerization catalyst and at least one cocatalyst into the first reactor or reactor zone, the second mixture being separate from the first mixture prior to entering the first reactor or reactor zone; contacting the first mixture and the second mixture under polymerization conditions in the first reactor or reactor zone to form a reaction mixture that is characterized by the formation of polymer chains from the one or more polymerizable C 2 to C 10 alpha-olefin monomers; providing the reaction mixture to a second reactor or reactor zone and optionally adding one or more additional solvents, polymerizable C 2 to C 10 alpha-olefin monomers, and/or catalysts; and allowing polymerization to occur in at least one of the first reactor or reactor zone and the second reactor or reactor zone to form polymer chains that are differentiated from the polymer chains formed in, such that the resultant polymer molecules comprise two or more chemically or physically distinguishable blocks.
Flexible material comprised of a textile substrate or a cellulose-based substrate selected from: knitted, woven, nonwoven fabrics, paper or combinations thereof; wherein said textile substrate or a cellulose-based substrate comprises at least one coating layer; wherein said coating layer comprises: a polymer binder and, at least 5% - 50% (wt residue /wt coating) particles of a residue, wherein the residue particles have a particle size of less than 0.7 mm; wherein the residue is of vegetable origin selected from a list comprised of: saw dust, leaf and stem residues, mushroom residues, paper residues, cereal residues, tea plant residues, coffee residues, rice husk, nut residues (in particular walnut, almond, chestnut, cashew, pine nut), tree bark (in particular pine and eucalyptus), olive stones, or mixtures thereof; wherein said coating layer has a composition comprising 50% to 90% (wt residue /wt coating) of a suitable polymer binder, in particular natural or synthetic polymer binder, or combination thereof; wherein the composition comprises a viscosity between 20 - 100 dPas at 20 °C; and wherein said coating layer is obtained by knife coating or rotary screen. a textile substrate or a cellulose-based substrate selected from: knitted, woven, nonwoven fabrics, paper or combinations thereof; wherein said textile substrate or a cellulose-based substrate comprises at least one coating layer; wherein said coating layer comprises: a polymer binder and, at least 5% - 50% (wt residue /wt coating) particles of a residue, wherein the residue particles have a particle size of less than 0.7 mm; wherein the residue is of vegetable origin selected from a list comprised of: saw dust, leaf and stem residues, mushroom residues, paper residues, cereal residues, tea plant residues, coffee residues, rice husk, nut residues (in particular walnut, almond, chestnut, cashew, pine nut), tree bark (in particular pine and eucalyptus), olive stones, or mixtures thereof; a polymer binder and, at least 5% - 50% (wt residue /wt coating) particles of a residue, wherein the residue particles have a particle size of less than 0.7 mm; wherein the residue is of vegetable origin selected from a list comprised of: saw dust, leaf and stem residues, mushroom residues, paper residues, cereal residues, tea plant residues, coffee residues, rice husk, nut residues (in particular walnut, almond, chestnut, cashew, pine nut), tree bark (in particular pine and eucalyptus), olive stones, or mixtures thereof; wherein said coating layer has a composition comprising 50% to 90% (wt residue /wt coating) of a suitable polymer binder, in particular natural or synthetic polymer binder, or combination thereof; wherein the composition comprises a viscosity between 20 - 100 dPas at 20 °C; and wherein said coating layer is obtained by knife coating or rotary screen.
A method for securely sharing digital contents, comprising: a second device transmitting a preset first content-sharing trust degree to a first device owning the digital contents; wherein the first content-sharing trust degree indicates a trust degree of the second device in a third device's being qualified to share the digital contents; the first device determining a second content-sharing trust degree according to the received first content-sharing trust degree and a preset content-sharing recommending trust degree, determining whether a condition of authorizing the third device to use the digital contents is met according to the second content-sharing trust degree, and authorizing the third device to use the digital contents after determining that the condition is met; wherein the second content-sharing trust degree indicates a trust degree of the first device in the third device's being qualified to share the digital contents; and the content-sharing recommending trust degree indicates a trust degree of the first device in the second device's recommending the third device to share the digital contents. a second device transmitting a preset first content-sharing trust degree to a first device owning the digital contents; wherein the first content-sharing trust degree indicates a trust degree of the second device in a third device's being qualified to share the digital contents; the first device determining a second content-sharing trust degree according to the received first content-sharing trust degree and a preset content-sharing recommending trust degree, determining whether a condition of authorizing the third device to use the digital contents is met according to the second content-sharing trust degree, and authorizing the third device to use the digital contents after determining that the condition is met; wherein the second content-sharing trust degree indicates a trust degree of the first device in the third device's being qualified to share the digital contents; and the content-sharing recommending trust degree indicates a trust degree of the first device in the second device's recommending the third device to share the digital contents.
Organosilicon compound of formula: wherein each A independently is a straight or branched C 1 -C 8 alkylene group, each B independently is a straight or branched C 1 -C 8 alkylene group and each D independently is a straight or branched C 1 -C 8 alkylene group; each R independently is a hydrolysable halogen or alkoxy group, each R' independently is a C 1 -C 4 alkyl group, and m is an integer of 1 to 3; a' is 0 to 3, b' is 0 to 3, c' is 0 or 1, a'+b'+c' is 3, a" is 0 to 3, b" is 0 to 3, c" is 0 or 1, a"+b"+c" is 3, and a'+a" is 1 to 6. each A independently is a straight or branched C 1 -C 8 alkylene group, each B independently is a straight or branched C 1 -C 8 alkylene group and each D independently is a straight or branched C 1 -C 8 alkylene group; each R independently is a hydrolysable halogen or alkoxy group, each R' independently is a C 1 -C 4 alkyl group, and m is an integer of 1 to 3; a' is 0 to 3, b' is 0 to 3, c' is 0 or 1, a'+b'+c' is 3, a" is 0 to 3, b" is 0 to 3, c" is 0 or 1, a"+b"+c" is 3, and a'+a" is 1 to 6.
A padlock configured to be locked and unlocked by a key, the padlock comprising: a lock body having an internal cavity with a locking mechanism configured to be selectively moved over a range of positions when the key is received therein to lock and unlock the padlock; and a keyway extending through the lock body into the internal cavity to provide access to the locking mechanism by the key, the keyway having an eccentric profile that permits the key to be removed from the locking mechanism in only a single position of the range of positions; characterized in that the keyway of the lock body provides both a rotational stop and an axial stop (366, 372) for engagement with the key. a lock body having an internal cavity with a locking mechanism configured to be selectively moved over a range of positions when the key is received therein to lock and unlock the padlock; and a keyway extending through the lock body into the internal cavity to provide access to the locking mechanism by the key, the keyway having an eccentric profile that permits the key to be removed from the locking mechanism in only a single position of the range of positions; characterized in that the keyway of the lock body provides both a rotational stop and an axial stop (366, 372) for engagement with the key.
A beta prime subunit (β'-subunit) mutant of RNA polymerase, wherein the beta prime subunit (β'-subunit) mutant of RNA polymerase has an amino acid sequence selected from the group consisting of SEQ ID NOs: 8, 9, 11, 14, 15, 20, 23, 24, 25 and 26.
A method for adjusting an emitter of a sender device for free space optical communications, comprising: determining at least one derivative of coupling efficiency of the emitter to a detector of a receiving device as a function of parameters used for control of direction and focus of a beam emitted by the emitter, wherein at least one oscillating component is induced into the parameters, and determining adjustment of the direction and focus based on the determined at least one derivative to focus the beam at the detector. determining at least one derivative of coupling efficiency of the emitter to a detector of a receiving device as a function of parameters used for control of direction and focus of a beam emitted by the emitter, wherein at least one oscillating component is induced into the parameters, and determining adjustment of the direction and focus based on the determined at least one derivative to focus the beam at the detector.
A Method for the production of a flat impregnated pulp product, comprising the following method steps: 1.1 provision of a pulp lane that contains cellulose; 1.2 impregnating the pulp lane with a cellulose-dissolving impregnating agent; 1.3 impregnation is performed by complete wetting, or by immersion of the pulp lane in the impregnating agent; 1.4 impregnation is performed at concurrent pressing of the pulp lane in the impregnating agent; 1.5 the impregnation process takes up to 60 s; 1.6 the impregnating agent contains at least one of the following substances: urea, thiourea, NaOH, or their metal salts; 1.7 the temperature in the pressure area is at 0 to minus 20° C. 1.1 provision of a pulp lane that contains cellulose; 1.2 impregnating the pulp lane with a cellulose-dissolving impregnating agent; 1.3 impregnation is performed by complete wetting, or by immersion of the pulp lane in the impregnating agent; 1.4 impregnation is performed at concurrent pressing of the pulp lane in the impregnating agent; 1.5 the impregnation process takes up to 60 s; 1.6 the impregnating agent contains at least one of the following substances: urea, thiourea, NaOH, or their metal salts; 1.7 the temperature in the pressure area is at 0 to minus 20° C.
An in-vehicle electronic device to operate in a motor vehicle in an unattended power state, the in-vehicle electronic device comprising: a wireless interface to communicate securely with a remote network resource; and a memory to store one or more values to specify a predefined trigger event for coupling the motor vehicle in the unattended power state to the remote network resource; a processor configured to: identify a resource to be monitored; recognize an occurrence of the predefined trigger event by checking first data obtained responsive to monitoring the identified resource against the one or more values; in response to a recognition of the occurrence of a predefined trigger event, identify second data suitable for coupling the in-vehicle electronic device to the remote network resource; establish a communication channel to the remote network resource via the wireless interface using the second data; and download third data over the communication channel to the motor vehicle in the unattended power state or upload the third data over the communication channel from the motor vehicle in the unattended power state. a wireless interface to communicate securely with a remote network resource; and a memory to store one or more values to specify a predefined trigger event for coupling the motor vehicle in the unattended power state to the remote network resource; a processor configured to: identify a resource to be monitored; recognize an occurrence of the predefined trigger event by checking first data obtained responsive to monitoring the identified resource against the one or more values; in response to a recognition of the occurrence of a predefined trigger event, identify second data suitable for coupling the in-vehicle electronic device to the remote network resource; establish a communication channel to the remote network resource via the wireless interface using the second data; and download third data over the communication channel to the motor vehicle in the unattended power state or upload the third data over the communication channel from the motor vehicle in the unattended power state. identify a resource to be monitored; recognize an occurrence of the predefined trigger event by checking first data obtained responsive to monitoring the identified resource against the one or more values; in response to a recognition of the occurrence of a predefined trigger event, identify second data suitable for coupling the in-vehicle electronic device to the remote network resource; establish a communication channel to the remote network resource via the wireless interface using the second data; and download third data over the communication channel to the motor vehicle in the unattended power state or upload the third data over the communication channel from the motor vehicle in the unattended power state.
A method of manufacturing an electrode for use in a plasma arc torch comprising: forming a conductive body to define a proximal end portion, a distal end portion, and a distal end face disposed at the distal end portion; inserting at least one emissive insert through the distal end face and into the distal end portion, the at least one emissive insert comprising a distal end portion and a proximal end portion, each portion (270, 272) defining a longitudinal axis; pressing the at least one emissive insert into the distal end portion and deforming the at least one emissive insert such that the longitudinal axis of the proximal end portion of the at least one emissive insert extends at an angle relative to the longitudinal axis of the distal end portion of the at least one emissive insert. forming a conductive body to define a proximal end portion, a distal end portion, and a distal end face disposed at the distal end portion; inserting at least one emissive insert through the distal end face and into the distal end portion, the at least one emissive insert comprising a distal end portion and a proximal end portion, each portion (270, 272) defining a longitudinal axis; pressing the at least one emissive insert into the distal end portion and deforming the at least one emissive insert such that the longitudinal axis of the proximal end portion of the at least one emissive insert extends at an angle relative to the longitudinal axis of the distal end portion of the at least one emissive insert.
Connection terminal for the electrically insulated linking of an electric cable of a motor vehicle to a rotating electric machine of said vehicle, said terminal consisting, on the one hand, of a core which bears female means (5, 6, 8) for its electrically insulated fastening to a heat sink of said rotating electric machine, electrically conductive male means for connecting to a female metal lug arranged at one end of said electric cable, and electrically conductive means (9, 10) for connecting to a current outlet terminal of said rotating electric machine; and, on the other hand, of a jacket produced by overmoulding an electrically insulating material on said core, said insulating jacket entirely jacketing all of said female fastening means (5, 6, 8) and electrically conductive connection means (9, 10), apart from the surfaces (91, 100) for connection respectively to said current outlet terminal and to said female metal lug, characterized in that said female fastening means comprise two inserts produced in an insulating material with high thermal and mechanical characteristics.
A composition for detecting SARS-CoV-2, comprising: a first primer pair, for specifically amplifying an N gene of SARS-CoV-2: a first probe, for detecting an amplification product of the first primer pair; a second primer pair, for specifically amplifying an area as shown in SEQ ID NO: 1 in an ORF1ab gene; a second probe, for detecting an amplification product of the second primer pair; a third primer pair, for specifically amplifying an area as shown in SEQ ID NO: 2 in the ORF1ab gene; and a third probe, for detecting an amplification product of the third primer pair. a first primer pair, for specifically amplifying an N gene of SARS-CoV-2: a first probe, for detecting an amplification product of the first primer pair; a second primer pair, for specifically amplifying an area as shown in SEQ ID NO: 1 in an ORF1ab gene; a second probe, for detecting an amplification product of the second primer pair; a third primer pair, for specifically amplifying an area as shown in SEQ ID NO: 2 in the ORF1ab gene; and a third probe, for detecting an amplification product of the third primer pair.
A conjugate comprising: (i) mannan; and (ii) at least one epitope comprising a peptide which is MBP 83-99, in linear form; wherein said epitope is linked to mannan via a [(Lys-Gly) n] bridge, where n is an integer from 1 to 10. (i) mannan; and (ii) at least one epitope comprising a peptide which is MBP 83-99, in linear form;
Smart packaging containing a sensor comprising a randomly functionalised polyolefin having functional groups, a sensing compound selected from pH and/or redox indicators and optionally a polar solvent, wherein the polyolefin has a crystallinity between 0 and 35 %, as determined with DSC, and wherein the amount of monomeric moieties having a functional group ranges between 0.1 and 5 mol%, preferably between 0.11 and 2 mol%, as determined with 1 H NMR. wherein the polyolefin has a crystallinity between 0 and 35 %, as determined with DSC, and wherein the amount of monomeric moieties having a functional group ranges between 0.1 and 5 mol%, preferably between 0.11 and 2 mol%, as determined with 1 H NMR.