mhurhangee/ep-ind-claims huggingface dataset:
A single contact, single absorption system for oxidizing sulfur dioxide to produce sulfuric acid comprising: an inlet for a gas supply comprising sulfur dioxide and oxygen; a series of contact catalyst beds (1, 2, 3, 4) comprising one or more vanadium oxide catalyst beds fluidly connected in series to the gas supply inlet and one or more platinum catalyst beds fluidly connected in series to the last vanadium oxide catalyst bed in the series of vanadium oxide catalyst beds, wherein each of the contact catalyst beds comprises an inlet and an outlet; a platinum catalyst bed heat exchanger with one side connected between the outlet of the last vanadium oxide catalyst bed in the series and the inlet of the first platinum catalyst bed in the series; an absorption tower with an inlet fluidly connected to the outlet of the last platinum catalyst bed in the series; and a sulfur trioxide heat exchanger with one side connected between the outlet of the last platinum catalyst bed in the series and the absorption tower inlet. an inlet for a gas supply comprising sulfur dioxide and oxygen; a series of contact catalyst beds (1, 2, 3, 4) comprising one or more vanadium oxide catalyst beds fluidly connected in series to the gas supply inlet and one or more platinum catalyst beds fluidly connected in series to the last vanadium oxide catalyst bed in the series of vanadium oxide catalyst beds, wherein each of the contact catalyst beds comprises an inlet and an outlet; a platinum catalyst bed heat exchanger with one side connected between the outlet of the last vanadium oxide catalyst bed in the series and the inlet of the first platinum catalyst bed in the series; an absorption tower with an inlet fluidly connected to the outlet of the last platinum catalyst bed in the series; and a sulfur trioxide heat exchanger with one side connected between the outlet of the last platinum catalyst bed in the series and the absorption tower inlet.
An optical transmission body, comprising: a substrate comprising a through hole penetrating therethrough in a thickness direction (D1-D2) thereof; a cladding member at least a part of which is positioned to be filled in the through hole, the cladding member comprising an optical waveguide hole which is positioned inside the through hole and penetrates through the cladding member in a thickness direction thereof and a core member disposed inside the optical waveguide hole, characterized in that the cladding member comprises a guide hole portion which is positioned away from the optical waveguide hole and is concave in the thickness direction. a cladding member at least a part of which is positioned to be filled in the through hole, the cladding member comprising an optical waveguide hole which is positioned inside the through hole and penetrates through the cladding member in a thickness direction thereof and a core member disposed inside the optical waveguide hole, characterized in that the cladding member comprises a guide hole portion which is positioned away from the optical waveguide hole and is concave in the thickness direction.
A method, effected by a system for managing devices, for initiating a network configuration for a device, the method comprising the steps of: registering a first subscriber network identifier and subscriber network identity; associating subscriber network identifiers or ranges of subscriber network identifiers with a particular web landing page; receiving from the device an indication that the device has connected with a subscriber network, the received indication including the subscriber network identity of the subscriber network to which the device has connected, and wherein the first subscriber network identifier is included with or within the received indication; determining the subscriber network identity from the received indication; determining a first subscriber module identifier as an IMSI used by the device; and providing the device with a web landing page specific to a set of parameters including the subscriber network identity and the first subscriber module identifier, wherein the web landing page provides logic configured to initiate network configuration for the device by sending a signal to cause the first subscriber module identifier that is stored within a subscriber module to transform into a second subscriber module identifier, wherein the first subscriber module identifier includes the first subscriber network identifier, and wherein the subscriber network is a cellular network. registering a first subscriber network identifier and subscriber network identity; associating subscriber network identifiers or ranges of subscriber network identifiers with a particular web landing page; receiving from the device an indication that the device has connected with a subscriber network, the received indication including the subscriber network identity of the subscriber network to which the device has connected, and wherein the first subscriber network identifier is included with or within the received indication; determining the subscriber network identity from the received indication; determining a first subscriber module identifier as an IMSI used by the device; and providing the device with a web landing page specific to a set of parameters including the subscriber network identity and the first subscriber module identifier, wherein the web landing page provides logic configured to initiate network configuration for the device by sending a signal to cause the first subscriber module identifier that is stored within a subscriber module to transform into a second subscriber module identifier, wherein the first subscriber module identifier includes the first subscriber network identifier, and wherein the subscriber network is a cellular network.
A method for operating a reputation server engine, the method executable on a computing device and comprising: parsing an executable object (210, 220, 230) into a plurality of subroutines (A-S); determining, for each subroutine (A-S), the number of times the subroutine (A-S) is executed during use, and the number of calls to the subroutine (A-S) present within the executable object (210, 220, 230), as frequency factors; assigning each subroutine (A-S) a reputation score based at least in part on said frequency factors, by computing a weighted average of said frequency factors, or by determining whether one or more of said frequency factors are above or below respective thresholds, wherein the reputation represents a confidence level related to a decision of whether the subroutine (A-S) is, or contains, malware, and the less frequently the subroutine (A-S) is executed, the more suspicious it is considered to be. parsing an executable object (210, 220, 230) into a plurality of subroutines (A-S); determining, for each subroutine (A-S), the number of times the subroutine (A-S) is executed during use, and the number of calls to the subroutine (A-S) present within the executable object (210, 220, 230), as frequency factors; assigning each subroutine (A-S) a reputation score based at least in part on said frequency factors, by computing a weighted average of said frequency factors, or by determining whether one or more of said frequency factors are above or below respective thresholds, wherein the reputation represents a confidence level related to a decision of whether the subroutine (A-S) is, or contains, malware, and the less frequently the subroutine (A-S) is executed, the more suspicious it is considered to be.
A manual injection device comprising: ▪ a lower body that receives a reservoir, said reservoir being stationary axially relative to said lower body and containing fluid to be injected, said reservoir including a piston and a needle, ▪ an upper body that is movable axially relative to said lower body during actuation, said upper body including a piston rod that co-operates with said piston during injection so as to move it in the reservoir S, ▪ an actuator sleeve that includes a contact end for coming into contact with the user's body, said actuator sleeve being movable relative to said lower body between projecting positions, in which said actuator sleeve projects at least in part out from said lower body, and an actuated position in which said actuator sleeve is moved axially into said lower body, said actuator sleeve being in a first projecting position before the manual injection device has been actuated and in a second projecting position after the manual injection device has been actuated, said actuator sleeve defining with said lower body, or with any element that is secured to said lower body, such as a reservoir support, a pricking lock, characterized in that said piston rod defines with said reservoir, or with any element that is secured to said reservoir, such as a reservoir support or such as said lower body, an injection lock, the force necessary for actuating said pricking lock being less than the force necessary for actuating said injection lock, such that said pricking lock is actuated before said injection lock. ▪ a lower body that receives a reservoir, said reservoir being stationary axially relative to said lower body and containing fluid to be injected, said reservoir including a piston and a needle, ▪ an upper body that is movable axially relative to said lower body during actuation, said upper body including a piston rod that co-operates with said piston during injection so as to move it in the reservoir S, ▪ an actuator sleeve that includes a contact end for coming into contact with the user's body, said actuator sleeve being movable relative to said lower body between projecting positions, in which said actuator sleeve projects at least in part out from said lower body, and an actuated position in which said actuator sleeve is moved axially into said lower body, said actuator sleeve being in a first projecting position before the manual injection device has been actuated and in a second projecting position after the manual injection device has been actuated,
A method for operating a balloon system, comprising, at a zero-pressure balloon defining a balloon interior: • while the balloon interior contains a lighter-than-air fluid, ascending to a high altitude range, wherein the balloon inflates while ascending due to a reduction in atmospheric pressure surrounding the balloon; and • while in the high altitude range, while a passive vent of the zero-pressure balloon is in a first configuration, in which the balloon interior is fluidly coupled to a balloon exterior via the passive vent, passively venting a first portion of the lighter-than-air fluid via the passive vent, thereby maintaining a substantially zero pressure condition within the balloon; • while in the high altitude range, after passively venting the first portion of the lighter-than-air fluid via the passive vent, initiating a balloon descent, comprising controlling an active valve of the balloon system to open, thereby actively venting a second portion of the lighter-than-air fluid via the active valve, wherein the active valve is distinct from the passive vent; and • after passively venting the first portion of the lighter-than-air fluid via the passive vent, configuring the passive vent in a second configuration, in which the balloon interior is not fluidly coupled to the balloon exterior via the passive vent, comprising sealing the passive vent. • while the balloon interior contains a lighter-than-air fluid, ascending to a high altitude range, wherein the balloon inflates while ascending due to a reduction in atmospheric pressure surrounding the balloon; and • while in the high altitude range, while a passive vent of the zero-pressure balloon is in a first configuration, in which the balloon interior is fluidly coupled to a balloon exterior via the passive vent, passively venting a first portion of the lighter-than-air fluid via the passive vent, thereby maintaining a substantially zero pressure condition within the balloon; • while in the high altitude range, after passively venting the first portion of the lighter-than-air fluid via the passive vent, initiating a balloon descent, comprising controlling an active valve of the balloon system to open, thereby actively venting a second portion of the lighter-than-air fluid via the active valve, wherein the active valve is distinct from the passive vent; and • after passively venting the first portion of the lighter-than-air fluid via the passive vent, configuring the passive vent in a second configuration, in which the balloon interior is not fluidly coupled to the balloon exterior via the passive vent, comprising sealing the passive vent.
An electronic pipette comprising - a piston actuated in a cylinder by a motor, - a control system enabling the piston to be moved a distance such that a dose volume of liquid selected from a given volume range is aspirated into or dispensed from the pipette, - a user interface (1, 2) and - a display included in the user interface, characterised in that - the control system comprises at least two profiles, each profile comprising a setting array and at least one setting that acts over the entire volume range and that can be changed separately for each profile, whereby a desired profile can be selected for use in each case, wherein each profile includes various pipetting functions from the following group: - direct pipetting, - reverse pipetting, - repetitive reverse pipetting, - stepped pipetting, - diluting function, - direct pipetting and mixing function, - direct pipetting and calculation function, - aspiration function, and - manual function. - a piston actuated in a cylinder by a motor, - a control system enabling the piston to be moved a distance such that a dose volume of liquid selected from a given volume range is aspirated into or dispensed from the pipette, - a user interface (1, 2) and - a display included in the user interface, characterised in that - the control system comprises at least two profiles, each profile comprising a setting array and at least one setting that acts over the entire volume range and that can be changed separately for each profile, whereby a desired profile can be selected for use in each case, wherein each profile includes various pipetting functions from the following group: - direct pipetting, - reverse pipetting, - repetitive reverse pipetting, - stepped pipetting, - diluting function, - direct pipetting and mixing function, - direct pipetting and calculation function, - aspiration function, and - manual function. - direct pipetting, - reverse pipetting, - repetitive reverse pipetting, - stepped pipetting, - diluting function, - direct pipetting and mixing function, - direct pipetting and calculation function, - aspiration function, and - manual function.
A mobile device carried by a user, the mobile device comprising: a motion sensor that is configured to detect movement of the mobile device; a receiver that is configured to receive a polling signal transmitted from an apparatus; and a controller that is configured to set a sampling speed of the motion sensor to detect movement of the mobile device based on whether or not the receiver receives the polling signal, wherein the controller is further configured to set the sampling speed of the motion sensor to a first sampling speed when the receiver does not receive the polling signal, and the sampling speed of the motion sensor to a second sampling speed, which is higher than the first sampling speed, when the receiver receives the polling signal, wherein the motion sensor is configured to detect vibration of the mobile device at the first sampling speed, wherein the motion sensor is configured to detect a predetermined movement of the mobile device, which is used as an authentication condition, at the second sampling speed. a motion sensor that is configured to detect movement of the mobile device; a receiver that is configured to receive a polling signal transmitted from an apparatus; and a controller that is configured to set a sampling speed of the motion sensor to detect movement of the mobile device based on whether or not the receiver receives the polling signal, wherein the controller is further configured to set the sampling speed of the motion sensor to a first sampling speed when the receiver does not receive the polling signal, and the sampling speed of the motion sensor to a second sampling speed, which is higher than the first sampling speed, when the receiver receives the polling signal, the sampling speed of the motion sensor to a first sampling speed when the receiver does not receive the polling signal, and the sampling speed of the motion sensor to a second sampling speed, which is higher than the first sampling speed, when the receiver receives the polling signal, wherein the motion sensor is configured to detect vibration of the mobile device at the first sampling speed, wherein the motion sensor is configured to detect a predetermined movement of the mobile device, which is used as an authentication condition, at the second sampling speed.
Fecal matter for use in the prevention or treatment of an autoimmune disease, wherein the use involves administration to a subject of fecal matter which is autologous to the subject, wherein the autoimmune disease is not inflammatory bowel syndrome, and wherein, if the use is for treatment of autoimmune disease, the fecal matter is obtained from the subject while having the autoimmune disease.
A method for concurrently producing power and H 2 from a gaseous mixture comprising H 2 and CO 2, the method comprising: feeding the gaseous mixture at super-atmospheric pressure to a first pressure swing adsorption system comprising adsorbent that selectively adsorbs CO 2 at said pressure, and selectively adsorbing CO 2 from the gaseous mixture with said adsorbent and at said pressure, thereby obtaining an H 2 -enriched mixture at super-atmospheric pressure; forming a fuel stream from a portion of the H 2 -enriched mixture, combusting said fuel stream and expanding the resulting combustion effluent to generate power; feeding another portion of the H 2 -enriched mixture at super-atmospheric pressure to a second PSA system comprising adsorbent that selectively adsorbs CO 2 at said pressure, and selectively adsorbing CO 2 from said portion of the H 2 -enriched mixture with said adsorbent and at said pressure, thereby obtaining an H 2 product; desorbing CO 2 from the first PSA system, at a pressure lower than said pressure at which CO 2 was selectively adsorbed from the gaseous mixture, to form a CO 2 -enriched mixture; and desorbing CO 2 from the second PSA system, at a pressure lower than said pressure at which CO 2 was selectively adsorbed from the H 2 -enriched mixture, to form an H 2 and CO 2 -containing mixture; wherein all or a portion of the H 2 and CO 2 -containing mixture is used as a purge gas for the first PSA system and/or is compressed and recycled to the first PSA system for further separation. feeding the gaseous mixture at super-atmospheric pressure to a first pressure swing adsorption system comprising adsorbent that selectively adsorbs CO 2 at said pressure, and selectively adsorbing CO 2 from the gaseous mixture with said adsorbent and at said pressure, thereby obtaining an H 2 -enriched mixture at super-atmospheric pressure; forming a fuel stream from a portion of the H 2 -enriched mixture, combusting said fuel stream and expanding the resulting combustion effluent to generate power; feeding another portion of the H 2 -enriched mixture at super-atmospheric pressure to a second PSA system comprising adsorbent that selectively adsorbs CO 2 at said pressure, and selectively adsorbing CO 2 from said portion of the H 2 -enriched mixture with said adsorbent and at said pressure, thereby obtaining an H 2 product; desorbing CO 2 from the first PSA system, at a pressure lower than said pressure at which CO 2 was selectively adsorbed from the gaseous mixture, to form a CO 2 -enriched mixture; and desorbing CO 2 from the second PSA system, at a pressure lower than said pressure at which CO 2 was selectively adsorbed from the H 2 -enriched mixture, to form an H 2 and CO 2 -containing mixture; wherein all or a portion of the H 2 and CO 2 -containing mixture is used as a purge gas for the first PSA system and/or is compressed and recycled to the first PSA system for further separation.
A light polarization state detection apparatus, comprising a housing, a polarizer, an imaging lens, a CCD and a data processing apparatus arranged in a light path in sequence and a data transmission line connected between the CCD and the data processing apparatus; wherein at least parts of the polarizer, the imaging lens and the CCD are packaged in the housing; the apparatus is characterized by further comprising a GRIN lens, which is arranged to receive measured incident light and cause emergent light rays to generate spatial phase modulation of SOP of a light field and then enter the polarizer, whereby the apparatus is further configured such that light rays of different phases are subjected to polarization interference after passing the polarizer and generate an interference pattern, and interference fringes are projected on the CCD after passing the imaging lens, recorded and transmitted to the data processing apparatus; whereby the data processing apparatus is adapted to calculate SOPs of different incident light according to the shapes of different interference patterns to which the SOPs of different incident light corresponds; whereby the GRIN lens is a device having certain birefringence parameters with certain spatial retardance distribution, including a birefringence value and an optical axis direction.
Electron beam curable composition comprising poly(alkylene oxide) containing substances, which are essentially free of ethylenically unsaturated groups, according to the following expression; R 1 [O-(C n H 2n O) x R 2] m wherein R 1 and R 2 may separately be hydrogen or any organic residue; m can be any number between 1 and 8; n can be any number between 1 and 6; and x can be any number equal to, or greater than 2, wherein the amount of poly(alkylene oxide) containing substances is from 1.0% to 10.0% by weight of the composition, and wherein the composition further comprises any blend of ethylenically unsaturated monomers. wherein R 1 and R 2 may separately be hydrogen or any organic residue; m can be any number between 1 and 8; n can be any number between 1 and 6; and x can be any number equal to, or greater than 2, wherein the amount of poly(alkylene oxide) containing substances is from 1.0% to 10.0% by weight of the composition, and wherein the composition further comprises any blend of ethylenically unsaturated monomers.