mhurhangee/patent-ind-claim-en huggingface dataset:
A method for analyzing a sample, comprising the following steps, performed in order: (a) obtaining: i. a plurality of capture agents that are each linked to a different oligonucleotide; and ii. a corresponding plurality of labeled nucleic acid probes, wherein each of the labeled nucleic acid probes specifically hybridizes with only one of the oligonucleotides of (a)(i); (b) labeling a sample with the plurality of capture agents of (a)(i); (c) specifically hybridizing a first sub-set of the labeled nucleic acid probes of (a)(ii) with the sample, wherein the probes in the first sub-set are distinguishably labeled, to produce labeled probe/oligonucleotide duplexes; (d) reading the sample to obtain an image showing the binding pattern for each of the probes hybridized in step (c); (e) inactivating or removing the labels of a(ii) that are associated with the sample in step (c) by using formamide, DMSO, urea or a chaotropic agent, leaving the plurality of capture agents of (b) and their associated oligonucleotides still bound to the sample; and (f) repeating steps (c) and (d) multiple times with a different sub-set of the labeled nucleic acid probes of (a)(ii), each repeat followed by step (e) except for the final repeat, to produce a plurality of images of the sample, each image corresponding to a sub-set of labeled nucleic acid probes used in (c). (a) obtaining: i. a plurality of capture agents that are each linked to a different oligonucleotide; and ii. a corresponding plurality of labeled nucleic acid probes, wherein each of the labeled nucleic acid probes specifically hybridizes with only one of the oligonucleotides of (a)(i); i. a plurality of capture agents that are each linked to a different oligonucleotide; and ii. a corresponding plurality of labeled nucleic acid probes, wherein each of the labeled nucleic acid probes specifically hybridizes with only one of the oligonucleotides of (a)(i); (b) labeling a sample with the plurality of capture agents of (a)(i); (c) specifically hybridizing a first sub-set of the labeled nucleic acid probes of (a)(ii) with the sample, wherein the probes in the first sub-set are distinguishably labeled, to produce labeled probe/oligonucleotide duplexes; (d) reading the sample to obtain an image showing the binding pattern for each of the probes hybridized in step (c); (e) inactivating or removing the labels of a(ii) that are associated with the sample in step (c) by using formamide, DMSO, urea or a chaotropic agent, leaving the plurality of capture agents of (b) and their associated oligonucleotides still bound to the sample; and (f) repeating steps (c) and (d) multiple times with a different sub-set of the labeled nucleic acid probes of (a)(ii), each repeat followed by step (e) except for the final repeat, to produce a plurality of images of the sample, each image corresponding to a sub-set of labeled nucleic acid probes used in (c).
Differential comprising two magnetic gears each comprising: - an internal rotor , - an external rotor , and - a rotor of the ferromagnetic poles interposed between said inner rotor and said outer rotor ; said inner rotor , said outer rotor and said ferromagnetic pole rotor being coaxial and suitable to rotate about a gear axis ; wherein: - the internal rotors are suitable to be connected to a drive , to be placed in rotation about the respective gear axis by said drive ; - the external rotors are suitable to be connected to respective output semi-axes to place them in rotation or are connected to an adjustment means suitable to adjust their rotation speed; - in the event that the external rotors are suitable to be connected to respective output semi-axes for placing them in rotation, the rotors of the ferromagnetic poles are connected to the adjustment means suitable to adjust the rotation speed of said rotors of the ferromagnetic poles ; and - in the event that the external rotors are connected to the adjustment means suitable for adjusting their rotation speed, the rotors of the ferromagnetic poles are suitable to be connected to respective output semi-axes to place them in rotation. - an internal rotor , - an external rotor , and - a rotor of the ferromagnetic poles interposed between said inner rotor and said outer rotor ; - the internal rotors are suitable to be connected to a drive , to be placed in rotation about the respective gear axis by said drive ; - the external rotors are suitable to be connected to respective output semi-axes to place them in rotation or are connected to an adjustment means suitable to adjust their rotation speed; - in the event that the external rotors are suitable to be connected to respective output semi-axes for placing them in rotation, the rotors of the ferromagnetic poles are connected to the adjustment means suitable to adjust the rotation speed of said rotors of the ferromagnetic poles ; and - in the event that the external rotors are connected to the adjustment means suitable for adjusting their rotation speed, the rotors of the ferromagnetic poles are suitable to be connected to respective output semi-axes to place them in rotation.
A pharmaceutical formulation comprising bromocriptine citrate and a non-lactose monosaccharide or disaccharide, citric acid, and a triglyceride.
Filter arrangement having a filter element in a first filter stage, wherein the filter element comprises a filter material for the filtration of an air stream, and having a housing for accommodating the filter element , wherein an encircling gel seal is arranged between the filter element and the housing and has a gel channel (4.1) for sealing the filter element in relation to the housing , wherein the filter arrangement has an encircling tongue , which penetrates into the gel channel (4.1), characterized in that the filter arrangement has an encircling covering element in order to cover the gel channel (4.1) on the raw-gas side (A) of the filter arrangement . wherein an encircling gel seal is arranged between the filter element and the housing and has a gel channel (4.1) for sealing the filter element in relation to the housing , wherein the filter arrangement has an encircling tongue , which penetrates into the gel channel (4.1), characterized in that the filter arrangement has an encircling covering element in order to cover the gel channel (4.1) on the raw-gas side (A) of the filter arrangement .
A method for manufacturing an absorbent body , comprising: a first step of simultaneously or successively introducing an aggregate of absorbent fibers and a water-absorbent resin into a gap that is formed between a first surface and a second surface and is smaller than a thickness of the aggregate of the absorbent fibers , recesses and protrusions being formed on at least one of the first surface and the second surface; a second step of applying a shearing force to the aggregate of the absorbent fibers by moving the first surface relative to and parallel to the second surface in order to mix the absorbent fibers and the water-absorbent resin ; and a third step of causing the absorbent fibers and the water-absorbent resin that were mixed to fall, and stacking the absorbent fibers and the water-absorbent resin by suctioning the absorbent fibers and the water-absorbent resin into a recessed portion having a predetermined shape, wherein the absorbent fibers and the water-absorbent resin that were mixed in a closed space are caused to fall, and the recessed portion is formed into a shape corresponding to the shape of the lower end of the space. a first step of simultaneously or successively introducing an aggregate of absorbent fibers and a water-absorbent resin into a gap that is formed between a first surface and a second surface and is smaller than a thickness of the aggregate of the absorbent fibers , recesses and protrusions being formed on at least one of the first surface and the second surface; a second step of applying a shearing force to the aggregate of the absorbent fibers by moving the first surface relative to and parallel to the second surface in order to mix the absorbent fibers and the water-absorbent resin ; and a third step of causing the absorbent fibers and the water-absorbent resin that were mixed to fall, and stacking the absorbent fibers and the water-absorbent resin by suctioning the absorbent fibers and the water-absorbent resin into a recessed portion having a predetermined shape, wherein the absorbent fibers and the water-absorbent resin that were mixed in a closed space are caused to fall, and the recessed portion is formed into a shape corresponding to the shape of the lower end of the space.
A finger-mounted device configured to be worn on a finger of a user and configured to control a head-mounted device , comprising: a housing configured to be placed over a tip of the finger ; force sensors coupled to sidewalls of the housing that measure forces exerted by the finger on the housing when the user presses the finger against a surface with the housing being placed over the tip of the finger , and wherein the force sensors are configured to sense lateral movement of the finger in the X-Y plane while the user presses the finger against the surface ; a haptic output device ; control circuitry configured to gather input from the force sensors as the finger moves and configured to provide haptic output to the finger using the haptic output device ; and power receiving circuitry configured to receive power from an external power source in the head-mounted device , wherein the power receiving circuitry includes a coil configured to receive wireless power signals transmitted by the external power source while the finger-mounted device is temporarily coupled to the head-mounted device ; and a battery configured to be charged with the received power. a housing configured to be placed over a tip of the finger ; force sensors coupled to sidewalls of the housing that measure forces exerted by the finger on the housing when the user presses the finger against a surface with the housing being placed over the tip of the finger , and wherein the force sensors are configured to sense lateral movement of the finger in the X-Y plane while the user presses the finger against the surface ; a haptic output device ; control circuitry configured to gather input from the force sensors as the finger moves and configured to provide haptic output to the finger using the haptic output device ; and power receiving circuitry configured to receive power from an external power source in the head-mounted device , wherein the power receiving circuitry includes a coil configured to receive wireless power signals transmitted by the external power source while the finger-mounted device is temporarily coupled to the head-mounted device ; and a battery configured to be charged with the received power.
A method for starting a slurry bubble column reactor that includes a reactor vessel holding a settled or slumped bed of particles, said particles having a mean particle diameter determined on a volumetric basis of less than 200 microns, and a liquid phase from which the particles have settled, the method including introducing a flow of a re-suspension liquid into the settled or slumped bed uniformly across a cross section of the reactor vessel through a distributor or sparger at a low level in the reactor so as to loosen the settled or slumped bed, the introduction of the re-suspension liquid taking place before the introduction of any gas into the settled or slumped bed, or together with feeding of gas into the settled or slumped bed, provided that, if gas is fed together with the re-suspension liquid into the settled or slumped bed before the settled or slumped bed has been loosened, the gas has a superficial gas velocity in the reactor below 10 cm/s wherein the volume of the re-suspension liquid introduced into the settled or slumped bed prior to the introduction of gas at a superficial velocity of above 10 cm/s is at least 5% of an interparticle volume of the settled or slumped bed, the flow of the re-suspension liquid is introduced at a superficial liquid velocity in the reactor vessel that is greater than the minimum fluidisation velocity of the particles of the settled or slumped bed in the liquid phase in the reactor vessel, and the re-suspension liquid has a viscosity of less than 10 cP at the temperature of the settled or slumped bed in the reactor vessel; whereby prior to the introduction of the flow of the re-suspension liquid, ensuring that the liquid phase in the reactor vessel is at a temperature such that the liquid phase has a viscosity of less than 10 cP; and once the settled or slumped bed has been loosened by at least the re-suspension liquid, passing gas at a superficial gas velocity above 10 cm/s through the liquid phase.
An air filter medium comprising a first porous PTFE membrane and a second porous PTFE membrane, wherein the air filter medium has a first main surface and a second main surface, the first porous PTFE membrane and the second porous PTFE membrane are arranged so that an air flow moving from the first main surface to the second main surface passes through the first porous PTFE membrane and subsequently through the second porous PTFE membrane, the first porous PTFE membrane comprises a plurality of nodes and a plurality of fibrils, a proportion of areas occupied by the plurality of nodes on a surface of the first porous PTFE membrane is in the range of 1.5 to 3.0%, and an average of the areas of the plurality of nodes is 200 μm 2 or more.
A system for wirelessly monitoring and profiling process conditions within a reactor vessel , wherein the system comprises: the reactor vessel that defines a reaction zone , wherein within the reaction zone is a catalyst bed comprising catalyst particles , wherein said catalyst particles comprise an inorganic oxide component and a metal component; a plurality of sensor-enabled RFID tags that are disposed at known locations within the catalyst bed and surrounded by the catalyst particles; wherein each the sensor-enabled RFID tag of the plurality is encoded with a unique non-variable identification code, and wherein each the sensor-enabled RFID tag of the plurality is configured to sense a reactor condition within the reaction zone, receive an interrogation signal , and, in response to the interrogation signal, transmit an RFID transponder signal that includes information representative of the unique non-variable identification code and of the reactor condition that is associated with the sensor-enabled RFID tag; and an RFID reader antenna that is wirelessly linked to each sensor-enabled RFID tags of the plurality and configured to transmit the interrogation signal and receive the RFID transponder signals that is transmitted by each sensor-enabled RFID tags of the plurality in response to the interrogation signal; whereby process conditions at specific locations throughout the reaction zone can be determined and profiled. wherein within the reaction zone is a catalyst bed comprising catalyst particles , wherein said catalyst particles comprise an inorganic oxide component and a metal component; a plurality of sensor-enabled RFID tags that are disposed at known locations within the catalyst bed and surrounded by the catalyst particles; wherein each the sensor-enabled RFID tag of the plurality is encoded with a unique non-variable identification code, and wherein each the sensor-enabled RFID tag of the plurality is configured to sense a reactor condition within the reaction zone, receive an interrogation signal , and, in response to the interrogation signal, transmit an RFID transponder signal that includes information representative of the unique non-variable identification code and of the reactor condition that is associated with the sensor-enabled RFID tag; and an RFID reader antenna that is wirelessly linked to each sensor-enabled RFID tags of the plurality and configured to transmit the interrogation signal and receive the RFID transponder signals that is transmitted by each sensor-enabled RFID tags of the plurality in response to the interrogation signal; whereby process conditions at specific locations throughout the reaction zone can be determined and profiled.
An aggregating network device comprising: a processor ; and a memory storing machine-readable instructions to cause the processor to: determine that a station of a wireless network that includes the aggregating network device is using a media access control, MAC, address in layer 3 communications of the station based on information included in a packet received from the station; in response to the determination create a temporary address; and replace at least a portion of a host internet protocol, IP, address in the header of the packet with the temporary address to hide the full host IP address of the station to enforce privacy addressing of the station, wherein the packet comprises a packet in accordance with Internet Protocol version 6, IPv6; and wherein the instructions to determine that the station is using a MAC address in layer 3 communications of the station include instructions to: determine the presence of a 16-bit OxFFFE string in a host portion of the IP address; or determine that the first 24 bits, excluding the seventh bit, and the last 24 bits of the host portion of the IP address correspond to bits in a header of a layer 2 packet from the station. a processor ; and a memory storing machine-readable instructions to cause the processor to: determine that a station of a wireless network that includes the aggregating network device is using a media access control, MAC, address in layer 3 communications of the station based on information included in a packet received from the station; in response to the determination create a temporary address; and replace at least a portion of a host internet protocol, IP, address in the header of the packet with the temporary address to hide the full host IP address of the station to enforce privacy addressing of the station, determine that a station of a wireless network that includes the aggregating network device is using a media access control, MAC, address in layer 3 communications of the station based on information included in a packet received from the station; in response to the determination create a temporary address; and replace at least a portion of a host internet protocol, IP, address in the header of the packet with the temporary address to hide the full host IP address of the station to enforce privacy addressing of the station, wherein the packet comprises a packet in accordance with Internet Protocol version 6, IPv6; and wherein the instructions to determine that the station is using a MAC address in layer 3 communications of the station include instructions to: determine the presence of a 16-bit OxFFFE string in a host portion of the IP address; or determine that the first 24 bits, excluding the seventh bit, and the last 24 bits of the host portion of the IP address correspond to bits in a header of a layer 2 packet from the station. determine the presence of a 16-bit OxFFFE string in a host portion of the IP address; or determine that the first 24 bits, excluding the seventh bit, and the last 24 bits of the host portion of the IP address correspond to bits in a header of a layer 2 packet from the station.
An applicator head for a fluid application device comprising: a service block having a first fluid conduit therein, configured to receive a fluid from a fluid supply source; a manifold removably secured to the service block and having a second fluid conduit therein configured to receive the fluid from the service block, the manifold having a seat ; a module secured to the manifold at the seat, the module including a valve configured to selectively control flow of the fluid in the manifold; and a nozzle having a first configuration removably securable to the manifold, the nozzle configured to receive the fluid from the manifold, the nozzle having a first interface for interfacing with the manifold, the manifold configured for receipt of nozzles having different configurations; and characterised in that ; the manifold includes a flange configured to abut the service block ; and in that said flange is configured as a positioning element to properly position the manifold relative to the service block, forming a flow path defined by said first fluid conduit and said second fluid conduit. a service block having a first fluid conduit therein, configured to receive a fluid from a fluid supply source; a manifold removably secured to the service block and having a second fluid conduit therein configured to receive the fluid from the service block, the manifold having a seat ; a module secured to the manifold at the seat, the module including a valve configured to selectively control flow of the fluid in the manifold; and a nozzle having a first configuration removably securable to the manifold, the nozzle configured to receive the fluid from the manifold, the nozzle having a first interface for interfacing with the manifold, the manifold configured for receipt of nozzles having different configurations; and characterised in that ; the manifold includes a flange configured to abut the service block ; and in that said flange is configured as a positioning element to properly position the manifold relative to the service block, forming a flow path defined by said first fluid conduit and said second fluid conduit.
A construct or vector comprising a combination of at least two polynucleotide sequences encoding at least two transcription factors selected from the group consisting of: BATF3, IRF8 and PU.1, wherein the at least two transcription factors are BATF3 and PU.1 or IRF8 and PU.1.
A substrate defect inspection method comprising steps of: irradiating a target substrate (RMB) with an EUV beam emitted from an EUV illumination source (ILS) by using a first focusing optical system ; guiding a scattered reflected beam, but no specularly-reflected beam, among beams reflected from the target substrate irradiated with the EUV beam to a light receiving surface of a sensor (SE) by using a second focusing optical system ; and determining that a defect is present at an irradiation spot of the target substrate with the EUV beam when an intensity of the scattered reflected beam received by the light receiving surface of the sensor exceeds a predetermined threshold, wherein the substrate defect inspection method comprises, before the irradiation of the target substrate with the EUV beam: a reflectance acquisition step of acquiring a reflectance of the target substrate to the EUV beam; and a threshold computation step of setting the predetermined threshold based on the reflectance acquired in the reflectance acquisition step. irradiating a target substrate (RMB) with an EUV beam emitted from an EUV illumination source (ILS) by using a first focusing optical system ; guiding a scattered reflected beam, but no specularly-reflected beam, among beams reflected from the target substrate irradiated with the EUV beam to a light receiving surface of a sensor (SE) by using a second focusing optical system ; and determining that a defect is present at an irradiation spot of the target substrate with the EUV beam when an intensity of the scattered reflected beam received by the light receiving surface of the sensor exceeds a predetermined threshold, wherein the substrate defect inspection method comprises, before the irradiation of the target substrate with the EUV beam: a reflectance acquisition step of acquiring a reflectance of the target substrate to the EUV beam; and a threshold computation step of setting the predetermined threshold based on the reflectance acquired in the reflectance acquisition step. a reflectance acquisition step of acquiring a reflectance of the target substrate to the EUV beam; and a threshold computation step of setting the predetermined threshold based on the reflectance acquired in the reflectance acquisition step.