mhurhangee/ep-ind-claims huggingface dataset:
A continuous method of forming nanoparticles, comprising (a) continuously applying a substantially liquid composition to a mold, wherein the mold comprises a polymer and defines a plurality of cavities each having a broadest cross-sectional dimension of less than about 100 micrometers; (b) passing the mold through a nip point defined by a roller such that the substantially liquid composition enters the cavities of the mold, wherein passing the mold through the nip point comprises nipping the substantially liquid composition between a cover sheet and the mold with the roller; (c) removing the cover sheet from the mold such that the substantially liquid composition not in the cavities of the mold remains in contact with the cover sheet, the land area of the mold between the cavities is substantially free from the substantially liquid composition, and the cavities of the mold remain filled with the substantially liquid composition; and (d) hardening the substantially liquid composition in the cavities of the mold to form a particle within each cavity, wherein the particle has a size and shape that substantially mimics the size and shape of the cavity of the mold. (a) continuously applying a substantially liquid composition to a mold, wherein the mold comprises a polymer and defines a plurality of cavities each having a broadest cross-sectional dimension of less than about 100 micrometers; (b) passing the mold through a nip point defined by a roller such that the substantially liquid composition enters the cavities of the mold, wherein passing the mold through the nip point comprises nipping the substantially liquid composition between a cover sheet and the mold with the roller; (c) removing the cover sheet from the mold such that the substantially liquid composition not in the cavities of the mold remains in contact with the cover sheet, the land area of the mold between the cavities is substantially free from the substantially liquid composition, and the cavities of the mold remain filled with the substantially liquid composition; and (d) hardening the substantially liquid composition in the cavities of the mold to form a particle within each cavity, wherein the particle has a size and shape that substantially mimics the size and shape of the cavity of the mold.
Method for generating, in a security module, an authentication key for access to a mobile network, the security module storing a first root key (K_root_A) shared with a first network entity (MNOA) and a first authentication key suitable for accessing a network of the first network entity, the method including the following steps, implemented by the security module: - a step (E0, E0') of sending a transfer request to a second network entity (MNOB), - a first step (E5, E10') of receiving a first secret (S_b1) encrypted for the security module from the second entity, - a step (E8, E11') of generating a secret generation key from the first root key and from the first secret, the method being characterized by: - a step (E13, E10') of receiving from the second entity a second secret (S_b2) encrypted for the security module and a message authenticating the second secret calculated by the second entity by means of the secret generation key transmitted to the second entity by the first entity, - a step (E14, E12') of verifying the authentication message by means of the secret generation key, - a step (E15, E13') of generating a second root key (K_root_B) if the verification is positive, said second root key being generated from the second secret (S_b2) and from the secret generation key, and used to generate a second authentication key to access a network of the second network entity. - a step (E0, E0') of sending a transfer request to a second network entity (MNOB), - a first step (E5, E10') of receiving a first secret (S_b1) encrypted for the security module from the second entity, - a step (E8, E11') of generating a secret generation key from the first root key and from the first secret, - a step (E13, E10') of receiving from the second entity a second secret (S_b2) encrypted for the security module and a message authenticating the second secret calculated by the second entity by means of the secret generation key transmitted to the second entity by the first entity, - a step (E14, E12') of verifying the authentication message by means of the secret generation key, - a step (E15, E13') of generating a second root key (K_root_B) if the verification is positive, said second root key being generated from the second secret (S_b2) and from the secret generation key, and used to generate a second authentication key to access a network of the second network entity.
An array comprising at least 1,000 different polynucleotides, each of the polynucleotides coupled to a distinct location on a surface in a two-dimensional pattern with rows and columns, wherein each of the polynucleotides differs from polynucleotides adjacent to it by at most 5 nucleotide subunits, wherein each of the polynucleotides comprises a first segment associated with a given row of the rows and a second segment associated with a given column of the columns of the distinct location.
A method for producing 5-(halomethyl)furfural, comprising: a) combining a feedstock, an acid, and a salt in a reaction vessel to form a reaction mixture, wherein: the feedstock comprises one or more C6 monosaccharides, disaccharides comprising monomeric units having six carbon atoms, or polysaccharides comprising monomeric units having six carbon atoms; the acid is HX, wherein X is halo; the salt is A r+ (X -) r, wherein: A r+ is a Group I or Group II cation, and X - is a halo anion; and the reaction mixture has a [H +] between 0.5 M and 8 M and a [X -] of at least 7 M; and b) producing 5-(halomethyl)furfural from at least a portion of the feedstock in the reaction mixture. a) combining a feedstock, an acid, and a salt in a reaction vessel to form a reaction mixture, wherein: the feedstock comprises one or more C6 monosaccharides, disaccharides comprising monomeric units having six carbon atoms, or polysaccharides comprising monomeric units having six carbon atoms; the acid is HX, wherein X is halo; the salt is A r+ (X -) r, wherein: A r+ is a Group I or Group II cation, and X - is a halo anion; and the reaction mixture has a [H +] between 0.5 M and 8 M and a [X -] of at least 7 M; and the feedstock comprises one or more C6 monosaccharides, disaccharides comprising monomeric units having six carbon atoms, or polysaccharides comprising monomeric units having six carbon atoms; the acid is HX, wherein X is halo; the salt is A r+ (X -) r, wherein: A r+ is a Group I or Group II cation, and X - is a halo anion; and A r+ is a Group I or Group II cation, and X - is a halo anion; and the reaction mixture has a [H +] between 0.5 M and 8 M and a [X -] of at least 7 M; and b) producing 5-(halomethyl)furfural from at least a portion of the feedstock in the reaction mixture.
An antibody that binds to C5, wherein the antibody binds to an epitope within a fragment consisting of amino acids 19 to 180 of the beta chain (SEQ ID NO: 40) of C5 with a higher affinity at neutral pH than at acidic pH wherein His70 and His 110 of said beta chain contribute to the pH dependency, and wherein the antibody competes for binding C5 with an antibody comprising a VH and VL pair selected from: (a) a VH of SEQ ID NO: 1 and a VL of SEQ ID NO: 11; (b) a VH of SEQ ID NO: 5 and a VL of SEQ ID NO: 15; (c) a VH of SEQ ID NO: 4 and a VL of SEQ ID NO: 14; (d) a VH of SEQ ID NO: 6 and a VL of SEQ ID NO: 16; (e) a VH of SEQ ID NO: 2 and a VL of SEQ ID NO: 12; (f) a VH of SEQ ID NO: 3 and a VL of SEQ ID NO: 13; (g) a VH of SEQ ID NO: 9 and a VL of SEQ ID NO: 19; (h) a VH of SEQ ID NO: 7 and a VL of SEQ ID NO: 17; (i) a VH of SEQ ID NO: 8 and a VL of SEQ ID NO: 18; and (j) a VH of SEQ ID NO: 10 and a VL of SEQ ID NO: 20. (a) a VH of SEQ ID NO: 1 and a VL of SEQ ID NO: 11; (b) a VH of SEQ ID NO: 5 and a VL of SEQ ID NO: 15; (c) a VH of SEQ ID NO: 4 and a VL of SEQ ID NO: 14; (d) a VH of SEQ ID NO: 6 and a VL of SEQ ID NO: 16; (e) a VH of SEQ ID NO: 2 and a VL of SEQ ID NO: 12; (f) a VH of SEQ ID NO: 3 and a VL of SEQ ID NO: 13; (g) a VH of SEQ ID NO: 9 and a VL of SEQ ID NO: 19; (h) a VH of SEQ ID NO: 7 and a VL of SEQ ID NO: 17; (i) a VH of SEQ ID NO: 8 and a VL of SEQ ID NO: 18; and (j) a VH of SEQ ID NO: 10 and a VL of SEQ ID NO: 20.
A method of inhibiting corrosion of metal surfaces in a cooling system using a water-based coolant, the method comprising: preparing an oxyaminophosphate by: mixing water, an organic amine, and phosphoric acid and/or inorganic phosphate to form an organic phosphate; and reacting the formed organic phosphate with magnesium oxide and/or a magnesium hydroxide to form the oxyaminophosphate, and contacting a mixture comprising the oxyaminophosphate with the water-based coolant, forming a corrosion protective layer on the metal surfaces, consisting metal oxide and/or metal hydroxide. preparing an oxyaminophosphate by: mixing water, an organic amine, and phosphoric acid and/or inorganic phosphate to form an organic phosphate; and reacting the formed organic phosphate with magnesium oxide and/or a magnesium hydroxide to form the oxyaminophosphate, and contacting a mixture comprising the oxyaminophosphate with the water-based coolant, forming a corrosion protective layer on the metal surfaces, consisting metal oxide and/or metal hydroxide. mixing water, an organic amine, and phosphoric acid and/or inorganic phosphate to form an organic phosphate; and reacting the formed organic phosphate with magnesium oxide and/or a magnesium hydroxide to form the oxyaminophosphate, and contacting a mixture comprising the oxyaminophosphate with the water-based coolant, forming a corrosion protective layer on the metal surfaces, consisting metal oxide and/or metal hydroxide.
A covalent conjugate of a polysaccharide and a detoxified E. coli heat labile enterotoxin, wherein the LT is a holotoxin and is a mutant protein LTS61K having a lysine substitution at the position corresponding to position 61 of SEQ ID NO: 5.
A moisture separator (12,12A,12B,12C,12D), comprising: a body that has a hollow shape and extends in a horizontal direction; a steam inlet portion that is provided in a longitudinally intermediate portion of the body; a manifold (35,36) that communicates with the steam inlet portion, and has plural steam blowout portions (53,54) provided along a longitudinal direction; a moisture separating portion (37,37a,37b,38,38a,38b) that separates moisture from steam blown out from the plural steam blowout portions (53,54); and a steam outlet portion (33,34) that is provided in the body, and discharges steam having had the moisture separated therefrom in the moisture separating portion (37,37a,37b,38,38a,38b) and flowing along an inner wall surface of the body, characterized in that the manifold (35,36) is arranged with a predetermined gap from the inner wall surface of the body. a body that has a hollow shape and extends in a horizontal direction; a steam inlet portion that is provided in a longitudinally intermediate portion of the body; a manifold (35,36) that communicates with the steam inlet portion, and has plural steam blowout portions (53,54) provided along a longitudinal direction; a moisture separating portion (37,37a,37b,38,38a,38b) that separates moisture from steam blown out from the plural steam blowout portions (53,54); and a steam outlet portion (33,34) that is provided in the body, and discharges steam having had the moisture separated therefrom in the moisture separating portion (37,37a,37b,38,38a,38b) and flowing along an inner wall surface of the body, characterized in that the manifold (35,36) is arranged with a predetermined gap from the inner wall surface of the body.
A data communication system comprising: a plurality of radio devices (22, 25, 27, 29, 28, 32, 34, 36) communicating together in groups defining networks (19, 20, 21, 40), at least certain member devices of the networks transmitting on the respective said network during time slots and at radio frequencies determined by a frequency hopping sequence; at least two of said groups having different frequency hopping sequences which are sufficiently related that messages transmitted by at least two of the member devices can collide by causing at least one of co-channel and related channel interference between messages of the at least two said groups; at least one of the devices (25, 28) is configured to compare the different radio frequency hopping sequences of the at least two said groups over a prediction interval and to identify time slots at which said sequences coincide sufficiently to produce said interference; and, at least one of said networks is configured to alter its behavior during the time slots at which the sequences coincide sufficiently to produce said interference, in a manner that reduces one of an incidence and an effect of collisions during the time slots when the sequences coincide; the data communication system being characterized in that: said at least one of said networks is arranged to alter its behavior according to priorities assigned and reassigned periodically to the at least one of said networks based upon current conditions of the networks. a plurality of radio devices (22, 25, 27, 29, 28, 32, 34, 36) communicating together in groups defining networks (19, 20, 21, 40), at least certain member devices of the networks transmitting on the respective said network during time slots and at radio frequencies determined by a frequency hopping sequence; at least two of said groups having different frequency hopping sequences which are sufficiently related that messages transmitted by at least two of the member devices can collide by causing at least one of co-channel and related channel interference between messages of the at least two said groups; at least one of the devices (25, 28) is configured to compare the different radio frequency hopping sequences of the at least two said groups over a prediction interval and to identify time slots at which said sequences coincide sufficiently to produce said interference; and, at least one of said networks is configured to alter its behavior during the time slots at which the sequences coincide sufficiently to produce said interference, in a manner that reduces one of an incidence and an effect of collisions during the time slots when the sequences coincide; the data communication system being characterized in that: said at least one of said networks is arranged to alter its behavior according to priorities assigned and reassigned periodically to the at least one of said networks based upon current conditions of the networks.
A terminal synchronization method applied to a vehicle to vehicle communications system, comprising: obtaining, by a terminal, a transmission interval for sending a plurality of first synchronization signals within a time duration, wherein the transmission interval is used to indicate a time interval between two adjacent ones of the plurality of first synchronization signals from the terminal, and the transmission interval is a configurable interval; obtaining, by the terminal, a starting offset for sending the plurality of first synchronization signals, wherein the starting offset is used to indicate an offset time period of a starting time point at which the terminal starts to send the plurality of first synchronization signals; wherein the terminal obtains the starting offset based on a type of a first synchronization source corresponding to the plurality of first synchronization signals; sending, by the terminal, the plurality of first synchronization signals based on the transmission interval and the starting offset. obtaining, by a terminal, a transmission interval for sending a plurality of first synchronization signals within a time duration, wherein the transmission interval is used to indicate a time interval between two adjacent ones of the plurality of first synchronization signals from the terminal, and the transmission interval is a configurable interval; obtaining, by the terminal, a starting offset for sending the plurality of first synchronization signals, wherein the starting offset is used to indicate an offset time period of a starting time point at which the terminal starts to send the plurality of first synchronization signals; wherein the terminal obtains the starting offset based on a type of a first synchronization source corresponding to the plurality of first synchronization signals; sending, by the terminal, the plurality of first synchronization signals based on the transmission interval and the starting offset.
A viewing object retention device to retain a viewing object to enable a viewer to view the viewing object such as an image display device, a reading material or the like in a lying position or in a sitting position, the device comprising: a base part; an arm part that is turnably joined to the base part at one end portion thereof through an axis having an angle of θ 1 =90°-θ A with respect to the horizontal direction, and extends to the other end portion along an axis line having an angle of θ A with respect to the horizontal direction from this joining point toward a space above the viewer; and a viewing object retention part that is located at the other end portion of the arm part to retain the viewing object; characterized in that the device further comprises a revolving mechanism that displaces the viewing object retention part angularly with respect to the axis line with the turning of the arm part with the joining point used as a fulcrum. a base part; an arm part that is turnably joined to the base part at one end portion thereof through an axis having an angle of θ 1 =90°-θ A with respect to the horizontal direction, and extends to the other end portion along an axis line having an angle of θ A with respect to the horizontal direction from this joining point toward a space above the viewer; and a viewing object retention part that is located at the other end portion of the arm part to retain the viewing object; characterized in that the device further comprises a revolving mechanism that displaces the viewing object retention part angularly with respect to the axis line with the turning of the arm part with the joining point used as a fulcrum.
System having a vehicle headlight for illuminating a surrounding environment of a motor vehicle and a control device, wherein the vehicle headlight has at least one light source which is set up to generate radiation visible for humans in the wavelength range from 360 nm to 830 nm, preferably from 380 nm to 780 nm, more preferably from 400 nm to 760 nm, having a luminance of 100 cd/mm 2 or greater, and a headlight housing, wherein at least one wall of the headlight housing is transparent for the visible radiation, characterised in that the control device is set up to reduce or to limit the luminance of the visible radiation of the at least one light source in a fitted state of the vehicle headlight in the case of - falling below a predetermined first speed limit of the motor vehicle, from a higher luminance of 100 cd/mm 2 or greater to a lower luminance in the range of less than 100 cd/mm 2 and 60 cd/mm 2, wherein the control device is set up to align the speed resulting from the speed signal with data of a satellite-based navigation system, at least one acceleration sensor and/or with data of an electronic stability programme and therefore to improve the quality of the determined speed of the motor vehicle or to verify the values of the speed signal. - falling below a predetermined first speed limit of the motor vehicle,
A non-transitory computer readable storage medium having stored thereon instructions that, when executed, cause a processor of a navigation system for navigating an instrument through a luminal network of a patient to at least: display, on a user display, a preoperative model corresponding to a mapped portion of a luminal network of a patient; determine a position of a distal end of an instrument that is positioned within the luminal network relative to the mapped portion of the preoperative model; determine that the position of the distal end of the instrument is within a predetermined distance of a boundary corresponding to a transition from an end of the mapped portion of the preoperative model to a portion of the luminal network that is unmapped in the preoperative model prior to the distal end of the instrument reaching the boundary; enter a path tracing mode in response to determining that the position of the distal end of the instrument is within the predetermined distance of the boundary prior to the distal end of the instrument reaching the boundary; and when in the path tracing mode, display, on the user display, visual indicia indicative of a path of the distal end of the instrument with respect to the displayed preoperative model as the instrument is navigated through the luminal network. display, on a user display, a preoperative model corresponding to a mapped portion of a luminal network of a patient; determine a position of a distal end of an instrument that is positioned within the luminal network relative to the mapped portion of the preoperative model; determine that the position of the distal end of the instrument is within a predetermined distance of a boundary corresponding to a transition from an end of the mapped portion of the preoperative model to a portion of the luminal network that is unmapped in the preoperative model prior to the distal end of the instrument reaching the boundary; enter a path tracing mode in response to determining that the position of the distal end of the instrument is within the predetermined distance of the boundary prior to the distal end of the instrument reaching the boundary; and when in the path tracing mode, display, on the user display, visual indicia indicative of a path of the distal end of the instrument with respect to the displayed preoperative model as the instrument is navigated through the luminal network.
A three dimensional neural network accelerator comprising: a first neural network accelerator tile comprising a first transmission coil; and a second neural network accelerator tile comprising a second transmission coil, wherein the first neural network accelerator tile is adjacent to and aligned vertically with the second neural network accelerator tile, wherein the first transmission coil is configured to establish wireless communication with the second transmission coil via inductive coupling, and wherein the first transmission coil is further configured to establish a ThruChip Interface, TCI, connection with the second transmission coil to form a vertical ring-bus, and wherein the first neural network accelerator tile and the second neural network accelerator tile are configured to carry out a computation of a neural network. a first neural network accelerator tile comprising a first transmission coil; and a second neural network accelerator tile comprising a second transmission coil, wherein the first neural network accelerator tile is adjacent to and aligned vertically with the second neural network accelerator tile, wherein the first transmission coil is configured to establish wireless communication with the second transmission coil via inductive coupling, and wherein the first transmission coil is further configured to establish a ThruChip Interface, TCI, connection with the second transmission coil to form a vertical ring-bus, and wherein the first neural network accelerator tile and the second neural network accelerator tile are configured to carry out a computation of a neural network.