mhurhangee/patent-ind-claim-en huggingface dataset:
A vibration damping connector system (10; 110; 210; 310) to connect between a vacuum chamber and a vacuum pump such that the vacuum pump is supported by the vibration damping connector system, said connector system comprising: a first cylindrical member (12; 112; 212; 312) having a through-passage (14; 114; 214; 314) to connect with said vacuum chamber; a second cylindrical member (16; 116; 216; 316) having a through-passage (18; 118; 218; 318) to connect said through-passage of said first cylindrical member with said vacuum pump; at least one sealing member (22, 24; 122, 124; 222, 224; 322) disposed intermediate said first and second cylindrical members to provide a gas seal; a securing system (26; 126; 226; 326) to provide a releasable secured connection of said first cylindrical member with said second cylindrical member; and at least one resilient member (28, 30; 128, 130; 228; 230; 328) disposed intermediate said securing system (26; 126; 226; 326) and a said cylindrical member such that when said at least one sealing member (22, 24; 122, 124; 222, 224; 322) is compressed by a pressure reduction caused in use by operation of said vacuum pump , said at least one resilient member can expand to enable said securing system to maintain said secured connection, characterized in that , said at least one resilient member (28, 30; 128, 130; 228; 230; 328) and said at least one sealing member (22, 24; 122, 124; 222, 224; 322) are configured such that in non-vacuum conditions for a predetermined vacuum pump weight the percentage squeeze on said at least one resilient member is greater than or equal to the percentage squeeze on said at least one sealing member when under vacuum. a first cylindrical member (12; 112; 212; 312) having a through-passage (14; 114; 214; 314) to connect with said vacuum chamber; a second cylindrical member (16; 116; 216; 316) having a through-passage (18; 118; 218; 318) to connect said through-passage of said first cylindrical member with said vacuum pump; at least one sealing member (22, 24; 122, 124; 222, 224; 322) disposed intermediate said first and second cylindrical members to provide a gas seal; a securing system (26; 126; 226; 326) to provide a releasable secured connection of said first cylindrical member with said second cylindrical member; and at least one resilient member (28, 30; 128, 130; 228; 230; 328) disposed intermediate said securing system (26; 126; 226; 326) and a said cylindrical member such that when said at least one sealing member (22, 24; 122, 124; 222, 224; 322) is compressed by a pressure reduction caused in use by operation of said vacuum pump , said at least one resilient member can expand to enable said securing system to maintain said secured connection, characterized in that , said at least one resilient member (28, 30; 128, 130; 228; 230; 328) and said at least one sealing member (22, 24; 122, 124; 222, 224; 322) are configured such that in non-vacuum conditions for a predetermined vacuum pump weight the percentage squeeze on said at least one resilient member is greater than or equal to the percentage squeeze on said at least one sealing member when under vacuum.
A soft endpoint for I/O communication, the soft endpoint comprising: a flexible endpoint configured to establish an emulated endpoint hierarchy based on an endpoint firmware of the soft endpoint ; a transaction layer configured to receive an I/O transaction that originates from a root port of a computing device in response to establishment of the emulated endpoint hierarchy; a smart filter configured to (i) determine whether to process the I/O transaction and (ii) process the I/O transaction in response to a determination to process the I/O transaction; and an endpoint interface configured to forward the I/O transaction to an offload complex of the computing device in response to a determination not to process the I/O transaction, characterized in that the soft endpoint further comprises a retry manager , the endpoint interface is further configured to receive a response from the offload complex in response to forwarding of the I/O transaction to the offload complex , and the retry manager is configured to store the response in a history buffer of the soft endpoint . a flexible endpoint configured to establish an emulated endpoint hierarchy based on an endpoint firmware of the soft endpoint ; a transaction layer configured to receive an I/O transaction that originates from a root port of a computing device in response to establishment of the emulated endpoint hierarchy; a smart filter configured to (i) determine whether to process the I/O transaction and (ii) process the I/O transaction in response to a determination to process the I/O transaction; and an endpoint interface configured to forward the I/O transaction to an offload complex of the computing device in response to a determination not to process the I/O transaction, characterized in that the soft endpoint further comprises a retry manager , the endpoint interface is further configured to receive a response from the offload complex in response to forwarding of the I/O transaction to the offload complex , and the retry manager is configured to store the response in a history buffer of the soft endpoint .
A reactor assembly comprising a reactor , wherein the reactor is configured for hosting a fluid to be treated with light source radiation selected from one or more of UV radiation, visible radiation, and IR radiation, wherein the reactor comprises a reactor wall which is transmissive for the light source radiation , wherein: - the reactor is a tubular reactor , and wherein the reactor wall defines the tubular reactor ; - the tubular reactor is configured in a tubular arrangement ; - the reactor assembly further comprises a reactor support element , wherein the reactor support element comprises a track , wherein the track partly encloses the tubular reactor , wherein the reactor support element comprises a thermally conductive element , and wherein the tubular reactor is configured in thermal contact with the thermally conductive element ; - wherein the tubular arrangement comprises a coiled tubular arrangement , wherein the tubular reactor is helically coiled, and wherein the track is helically coiled; - wherein the reactor assembly comprises a photoreactor assembly, wherein the reactor assembly further comprises a light source arrangement comprising a plurality of light sources configured to generate the light source radiation , wherein the reactor wall is configured in a radiation receiving relationship with the plurality of light sources ; - wherein the reactor support element comprises a support element surface comprising a cavity , wherein the cavity defines the track ; - wherein a surface of the track corresponds to at least part of an outer surface of the reactor wall . - the reactor is a tubular reactor , and wherein the reactor wall defines the tubular reactor ; - the tubular reactor is configured in a tubular arrangement ; - the reactor assembly further comprises a reactor support element , wherein the reactor support element comprises a track , wherein the track partly encloses the tubular reactor , wherein the reactor support element comprises a thermally conductive element , and wherein the tubular reactor is configured in thermal contact with the thermally conductive element ; - wherein the tubular arrangement comprises a coiled tubular arrangement , wherein the tubular reactor is helically coiled, and wherein the track is helically coiled; - wherein the reactor assembly comprises a photoreactor assembly, wherein the reactor assembly further comprises a light source arrangement comprising a plurality of light sources configured to generate the light source radiation , wherein the reactor wall is configured in a radiation receiving relationship with the plurality of light sources ; - wherein the reactor support element comprises a support element surface comprising a cavity , wherein the cavity defines the track ; - wherein a surface of the track corresponds to at least part of an outer surface of the reactor wall .
Composition comprising at least one active ingredient with an aqueous solubility of less than 1 g/l of pure water, said active ingredient being present therein in a form noncovalently associated with nanoparticles formed by at least one POM polymer of formula (II) below, or a pharmaceutically acceptable salt thereof: in which: - R 1 represents a hydrogen atom, a linear C 2 to C 10 acyl group, a branched C 3 to C 10 acyl group, a pyroglutamate group or a hydrophobic group G; - R 2 represents a -NHR 5 group or a terminal amino acid residue linked by the nitrogen and the carboxyl of which is optionally substituted with an alkylamino radical -NHR 5 or an alkoxy -OR 6 ; - R 5 represents a hydrogen atom, a linear C 1 to C 10 alkyl group, a branched C 3 to C 10 alkyl group or a benzyl group; - R 6 represents a hydrogen atom, a linear C 1 to C 10 alkyl group, a branched C 3 to C 10 alkyl group, a benzyl group or a group G; - G represents a tocopheryl radical; - m and n are positive, non-zero integers; - (m+n) ranges from 25 to 100; - the molar degree of grafting of the hydrophobic groups G, (n)/(n+m) ranges from 10 to 21%. and in which said active ingredient is present in a proportion of at least 5 μmol/g of POM, with exclusion of a composition comprising carvedilol base in a form noncovalently associated with nanoparticles formed by a polyglutamate polymer which is 20%-grafted with vitamin E and has a degree of polymerization of approximately 100, said carvedilol base being present in a proportion of approximately 248 μmol/g of polyglutamate; and with exclusion of a composition comprising carvedilol base in form noncovalently associated with nanoparticles formed by a polyglutamate polymer which is 10%-grafted with vitamin E and has a degree of polymerization of approximately 100, said carvedilol base being present in a proportion of approximately 311 μmol/g of polyglutamate . - R 1 represents a hydrogen atom, a linear C 2 to C 10 acyl group, a branched C 3 to C 10 acyl group, a pyroglutamate group or a hydrophobic group G; - R 2 represents a -NHR 5 group or a terminal amino acid residue linked by the nitrogen and the carboxyl of which is optionally substituted with an alkylamino radical -NHR 5 or an alkoxy -OR 6 ; - R 5 represents a hydrogen atom, a linear C 1 to C 10 alkyl group, a branched C 3 to C 10 alkyl group or a benzyl group; - R 6 represents a hydrogen atom, a linear C 1 to C 10 alkyl group, a branched C 3 to C 10 alkyl group, a benzyl group or a group G; - G represents a tocopheryl radical; - m and n are positive, non-zero integers; - (m+n) ranges from 25 to 100; - the molar degree of grafting of the hydrophobic groups G, (n)/(n+m) ranges from 10 to 21%.
An imaging device comprising: a fill port to receive a colorant container including an alignment circuit ; a controller including a processing resource and memory resource comprising a non-transitory computer-readable medium storing instructions executable by the processing resource to: detect, via the alignment circuit , a presence of a colorant container in a fill port of the imaging device; responsive to detection of the colorant container in the fill port , detect if the colorant container is properly inserted in the fill port and cause a fill process to initiate responsive to detection that the colorant container is properly inserted, characterised in that the detection if the colorant container is properly inserted in the fill port is done by determining if an amount of current passing through or a voltage measured upon the alignment circuit is above a threshold current or voltage for a predetermined amount of time. a fill port to receive a colorant container including an alignment circuit ; a controller including a processing resource and memory resource comprising a non-transitory computer-readable medium storing instructions executable by the processing resource to: detect, via the alignment circuit , a presence of a colorant container in a fill port of the imaging device; responsive to detection of the colorant container in the fill port , detect if the colorant container is properly inserted in the fill port and cause a fill process to initiate responsive to detection that the colorant container is properly inserted, characterised in that the detection if the colorant container is properly inserted in the fill port is done by determining if an amount of current passing through or a voltage measured upon the alignment circuit is above a threshold current or voltage for a predetermined amount of time. detect, via the alignment circuit , a presence of a colorant container in a fill port of the imaging device; responsive to detection of the colorant container in the fill port , detect if the colorant container is properly inserted in the fill port and cause a fill process to initiate responsive to detection that the colorant container is properly inserted,
A inspection device for quarantine, comprising: a bearing mechanism (40;440;530) configured to bear an object being scanned; a first X-ray source (10;511) arranged at a side of the bearing mechanism and configured to emit X-rays substantially perpendicular to a movement direction of the bearing mechanism; a first detection and data collection apparatus (30; 514 and 524) arranged at another side of the bearing mechanism opposite to the first X-ray source, wherein an inspection area is formed between the first X-ray source (10;511) and the bearing mechanism (40;440;530); a controller (50;517) connected to the bearing mechanism (40;440;530), the first X-ray source (10;511) and the first detection and data collection apparatus (30;514 and 524), and configured to control the bearing mechanism (40;440;530) and the first X-ray source (10;511) to perform a CT scan on the object being scanned; and a computer (60;518) connected to the controller (50;517) and the first detection and data collection apparatus (30;514 and 524), and configured to store data obtained by the CT scan, perform image reconstruction, identify inspected and quarantined substances, and output an identification result of the inspected and quarantined substances; wherein the computer further configured to identify plants, animals, meat and their products as the identification results, label the plants, animals, meat and their products identified with different colors, input the image labeled to an image processing system in the computer to highlight a suspect of quarantine, and alarm automatically; characterized in that the computer further configured to automatically record shape features of contrabands which are frequently labeled by a user. a bearing mechanism (40;440;530) configured to bear an object being scanned; a first X-ray source (10;511) arranged at a side of the bearing mechanism and configured to emit X-rays substantially perpendicular to a movement direction of the bearing mechanism; a first detection and data collection apparatus (30; 514 and 524) arranged at another side of the bearing mechanism opposite to the first X-ray source, wherein an inspection area is formed between the first X-ray source (10;511) and the bearing mechanism (40;440;530); a controller (50;517) connected to the bearing mechanism (40;440;530), the first X-ray source (10;511) and the first detection and data collection apparatus (30;514 and 524), and configured to control the bearing mechanism (40;440;530) and the first X-ray source (10;511) to perform a CT scan on the object being scanned; and a computer (60;518) connected to the controller (50;517) and the first detection and data collection apparatus (30;514 and 524), and configured to store data obtained by the CT scan, perform image reconstruction, identify inspected and quarantined substances, and output an identification result of the inspected and quarantined substances;
A method of migrating telephone functionality from a source mobile device to a target mobile device, the method comprising: embodying the telephone functionality of the source mobile device in a virtual machine including virtualizing a SIM chip of the source mobile device , the virtual machine having a guest operating system with guest device drivers (410 a -410 n ) which interact with device emulators (320 a -320 m ) in a virtualization software layer , and the virtualization software layer having device drivers (310 a -310 b ) which drive physical devices (210-260) in a hardware layer of the source mobile device ; serializing the virtual machine embodying the telephone functionality of the source mobile device ; migrating the virtual machine to the target mobile device by selecting the target mobile device, transferring the serialized virtualized machine to the target mobile device, and reprogramming an SIM chip in the target mobile device to receive telephone calls of the source mobile device instead at the target mobile device; operating the virtual machine including the virtualized SIM chip on the target mobile device, through the guest operating system with the guest device drivers (410 a -410 n ) which interact with the device emulators (320 a -320 m ) in the virtualization software layer and the device drivers (310 a -310 b ) which drive respective physical devices (210-260) in a hardware layer of the target mobile device; and requesting a service provider to redirect telephone calls intended for the source mobile device instead only to the target mobile device. embodying the telephone functionality of the source mobile device in a virtual machine including virtualizing a SIM chip of the source mobile device , the virtual machine having a guest operating system with guest device drivers (410 a -410 n ) which interact with device emulators (320 a -320 m ) in a virtualization software layer , and the virtualization software layer having device drivers (310 a -310 b ) which drive physical devices (210-260) in a hardware layer of the source mobile device ; serializing the virtual machine embodying the telephone functionality of the source mobile device ; migrating the virtual machine to the target mobile device by selecting the target mobile device, transferring the serialized virtualized machine to the target mobile device, and reprogramming an SIM chip in the target mobile device to receive telephone calls of the source mobile device instead at the target mobile device; operating the virtual machine including the virtualized SIM chip on the target mobile device, through the guest operating system with the guest device drivers (410 a -410 n ) which interact with the device emulators (320 a -320 m ) in the virtualization software layer and the device drivers (310 a -310 b ) which drive respective physical devices (210-260) in a hardware layer of the target mobile device; and requesting a service provider to redirect telephone calls intended for the source mobile device instead only to the target mobile device.
A hydrolysis method for tert-butyl ester in gadolinium-based contrast agent, wherein, the method comprises the step of hydrolyzing the tert-butyl ester with a catalyst; wherein the catalyst is prepared by a method comprising the following steps: subjecting zirconia and titanium tetrachloride to reaction in the presence of sulfuric acid and water at 60°C to 90°C until the solid are dissolved, adding silica to perform reaction for 1 to 5 h, filtering to obtain the solid, washing and calcining the solid. hydrolyzing the tert-butyl ester with a catalyst; wherein the catalyst is prepared by a method comprising the following steps: subjecting zirconia and titanium tetrachloride to reaction in the presence of sulfuric acid and water at 60°C to 90°C until the solid are dissolved, adding silica to perform reaction for 1 to 5 h, filtering to obtain the solid, washing and calcining the solid.
An electrochemical cell stack , comprising: a plurality of electrochemical cells stacked along a longitudinal axis , wherein one or more of the plurality of electrochemical cells comprise: a membrane electrode assembly comprising a cathode catalyst layer , an anode catalyst layer , and a polymer membrane interposed between the cathode catalyst layer and the anode catalyst layer and a subgasket around the polymer membrane ; an anode plate and a cathode plate with the membrane electrode assembly interposed therebetween; and a cathode flow field positioned between the cathode plate and the cathode catalyst layer , wherein the cathode flow field comprises a porous structure; wherein the porous structure has one or more surface regions on a first side of the porous structure that are smoother than other regions of the cathode flow field , wherein the one or more surface regions face the membrane electrode assembly and the one or more surface regions align with the subgasket of the membrane electrode assembly . a membrane electrode assembly comprising a cathode catalyst layer , an anode catalyst layer , and a polymer membrane interposed between the cathode catalyst layer and the anode catalyst layer and a subgasket around the polymer membrane ; an anode plate and a cathode plate with the membrane electrode assembly interposed therebetween; and a cathode flow field positioned between the cathode plate and the cathode catalyst layer , wherein the cathode flow field comprises a porous structure;