mhurhangee/ep-ind-claims huggingface dataset:
A system for treating a feed stream comprising hydrocarbons and an aqueous-based liquid, the system comprising: a vessel comprising a feed stream inlet fluidly connected with the feed stream and a treated stream outlet fluidly connected with a treated stream; and a filter bed positioned within the vessel and comprising a first layer (106, 106A) of filter media disposed on a second layer (108, 106B) of filter media; wherein at least the first layer (106, 106A) comprises a plurality of composite media pellets, each of the plurality of composite media pellets comprising a mixture of a cellulose-based material and a polyolefin, the composite media pellets have a size from 4.00 mm to 2.00 mm (5 to 10 mesh), wherein 50%-80% of the composite media pellets are of the cellulose-based material and the remainder of the composite pellets are of the polyolefin and wherein the filter media of the second layer (108, 106B) comprises walnut shells, the walnut shells have a size of 1.68 mm to 1.00 mm (12 to 16 mesh), wherein a volume of the first layer (106, 106A) is at least twice that of a volume of the second layer (108, 106B). a vessel comprising a feed stream inlet fluidly connected with the feed stream and a treated stream outlet fluidly connected with a treated stream; and a filter bed positioned within the vessel and comprising a first layer (106, 106A) of filter media disposed on a second layer (108, 106B) of filter media; wherein at least the first layer (106, 106A) comprises a plurality of composite media pellets, each of the plurality of composite media pellets comprising a mixture of a cellulose-based material and a polyolefin, the composite media pellets have a size from 4.00 mm to 2.00 mm (5 to 10 mesh), wherein 50%-80% of the composite media pellets are of the cellulose-based material and the remainder of the composite pellets are of the polyolefin and wherein the filter media of the second layer (108, 106B) comprises walnut shells, the walnut shells have a size of 1.68 mm to 1.00 mm (12 to 16 mesh), wherein a volume of the first layer (106, 106A) is at least twice that of a volume of the second layer (108, 106B).
A method performed by a mobile operating server to connect a mobile device to a network, the method comprising: determining that there is no authenticated access point accessible to the mobile device; in accordance with the determination, identifying a non-authenticated access point accessible to the mobile device, wherein the non-authenticated access point has a capacity above a threshold value, and wherein a determination whether the non-authenticated access point has a capacity above the threshold value is made in consideration of a task to be executed in the mobile device; and instructing the mobile device to wirelessly connect to the non-authenticated access point. determining that there is no authenticated access point accessible to the mobile device; in accordance with the determination, identifying a non-authenticated access point accessible to the mobile device, wherein the non-authenticated access point has a capacity above a threshold value, and wherein a determination whether the non-authenticated access point has a capacity above the threshold value is made in consideration of a task to be executed in the mobile device; and instructing the mobile device to wirelessly connect to the non-authenticated access point.
A puncture locating device for locating a puncture in a blood vessel, the puncture locating device comprising: an elongated dilator having a distal end, a proximal end that is opposite the distal end, an outer surface, an internal channel that extends from the distal end to the proximal end, an inlet opening that is open to the internal channel and is spaced from the distal end, and an outlet opening disposed between the proximal end and the inlet opening; a flexible barrier attached to the elongated dilator and overlying the outlet opening so that the flexible barrier and the outer surface proximate the outlet opening at least partially define an internal volume; and wherein the flexible barrier is configured to be movably responsive to pulsatile blood flow, such that, when the elongated dilator is inserted into the puncture of the blood vessel, blood flows into the inlet opening through the outlet opening into the internal volume, and pulsations in the blood flow cause the flexible barrier to pulse, thereby generating a visual and tactile indication of presence of the inlet opening in the blood vessel. an elongated dilator having a distal end, a proximal end that is opposite the distal end, an outer surface, an internal channel that extends from the distal end to the proximal end, an inlet opening that is open to the internal channel and is spaced from the distal end, and an outlet opening disposed between the proximal end and the inlet opening; a flexible barrier attached to the elongated dilator and overlying the outlet opening so that the flexible barrier and the outer surface proximate the outlet opening at least partially define an internal volume; and wherein the flexible barrier is configured to be movably responsive to pulsatile blood flow, such that, when the elongated dilator is inserted into the puncture of the blood vessel, blood flows into the inlet opening through the outlet opening into the internal volume, and pulsations in the blood flow cause the flexible barrier to pulse, thereby generating a visual and tactile indication of presence of the inlet opening in the blood vessel.
A semiconductor integrated circuit comprising: a plurality of circuit cells; a plurality of groups of power lines (VDD, VSS) arranged in stripe shapes; a plurality of branch lines branching from said power lines and supplying power to said circuit cells; a power switch cell arranged in at least one branch line to turn on or off the supply of power to said circuit cells in accordance with an input control signal, wherein the semiconductor integrated circuit is characterised in that said power switch cell comprises: a first interconnect line connected to two branch lines (VSSB) facing each other across said power switch cell and extending in opposite directions from each other, a first one of said two branch lines (VSSB) supplying power to a first one of the circuit cells on a first side of said power switch cell, and a second one of said two branch lines supplying power to a second one of the circuit cells on a second side of said power switch cell opposite to said first side; a second interconnect line connected to a branch line branching from said power line; and a switch circuit connected between said first interconnect line and said second interconnect line and turning on or off in accordance with said control signal. a plurality of circuit cells; a plurality of groups of power lines (VDD, VSS) arranged in stripe shapes; a plurality of branch lines branching from said power lines and supplying power to said circuit cells; a power switch cell arranged in at least one branch line to turn on or off the supply of power to said circuit cells in accordance with an input control signal, wherein the semiconductor integrated circuit is characterised in that said power switch cell comprises: a first interconnect line connected to two branch lines (VSSB) facing each other across said power switch cell and extending in opposite directions from each other, a first one of said two branch lines (VSSB) supplying power to a first one of the circuit cells on a first side of said power switch cell, and a second one of said two branch lines supplying power to a second one of the circuit cells on a second side of said power switch cell opposite to said first side; a second interconnect line connected to a branch line branching from said power line; and a switch circuit connected between said first interconnect line and said second interconnect line and turning on or off in accordance with said control signal. a first interconnect line connected to two branch lines (VSSB) facing each other across said power switch cell and extending in opposite directions from each other, a first one of said two branch lines (VSSB) supplying power to a first one of the circuit cells on a first side of said power switch cell, and a second one of said two branch lines supplying power to a second one of the circuit cells on a second side of said power switch cell opposite to said first side; a second interconnect line connected to a branch line branching from said power line; and a switch circuit connected between said first interconnect line and said second interconnect line and turning on or off in accordance with said control signal.
A method for diagnosis of prostate cancer, comprising the steps of a. analyzing in a sample of a subject the DNA methylation status of the genomic regions of a genomic region pair selected from the group of: i. SEQ ID NO. 29 and SEQ ID NO. 86; ii. SEQ ID NO. 8 and SEQ ID NO. 13; iii. SEQ ID NO. 8 and SEQ ID NO. 27; iv. SEQ ID NO. 8 and SEQ ID NO. 39; v. SEQ ID NO. 8 and SEQ ID NO. 86; b. wherein, if the genomic region pair is hypermethylated, the sample is designated as prostate cancer positive. a. analyzing in a sample of a subject the DNA methylation status of the genomic regions of a genomic region pair selected from the group of: i. SEQ ID NO. 29 and SEQ ID NO. 86; ii. SEQ ID NO. 8 and SEQ ID NO. 13; iii. SEQ ID NO. 8 and SEQ ID NO. 27; iv. SEQ ID NO. 8 and SEQ ID NO. 39; v. SEQ ID NO. 8 and SEQ ID NO. 86; i. SEQ ID NO. 29 and SEQ ID NO. 86; ii. SEQ ID NO. 8 and SEQ ID NO. 13; iii. SEQ ID NO. 8 and SEQ ID NO. 27; iv. SEQ ID NO. 8 and SEQ ID NO. 39; v. SEQ ID NO. 8 and SEQ ID NO. 86; b. wherein, if the genomic region pair is hypermethylated, the sample is designated as prostate cancer positive.
A socket comprising a protective element characterized in comprising a socket main body portion, an insulative spacer having a protruding portion provided on a second electrode of the protective element so as to be separated from a main surface of the second electrode, a terminal provided on the insulative spacer, and an insulating member provided on an inner bottom surface of the socket main body portion, these being secured by a bolt inserted from the insulating member side to the terminal side so as not to make contact with the protective element and the socket main body portion and by a nut positioned on the terminal side, wherein the protective element comprises (i) a PTC element having an opening passing through in the thickness direction, and (ii) a first electrode and the second electrode positioned on both main surfaces of the PTC element, wherein the first electrode extends from a main surface of the PTC element over an edge thereof and into the opening, and wherein the protective element is provided on an outer bottom surface of the socket main body portion so that the first electrode is electrically connected to the outer bottom surface. (i) a PTC element having an opening passing through in the thickness direction, and (ii) a first electrode and the second electrode positioned on both main surfaces of the PTC element, wherein the first electrode extends from a main surface of the PTC element over an edge thereof and into the opening, and wherein the protective element is provided on an outer bottom surface of the socket main body portion so that the first electrode is electrically connected to the outer bottom surface.
A vessel comprising a level sensing gauge for the vessel, wherein the vessel has a height and comprises a source well, and one or more level sensing nozzles in a wall of the vessel, wherein the level sensing gauge comprises one or more sources of radiant energy inserted within the source well, and one or more detectors of radiant energy, each of the one or more detectors being positioned outside the vessel and positioned in a respective level sensing nozzle, the nozzles being in registration with the one or more sources such that radiant energy from the one or more sources illuminates the one or more detectors, wherein the one or more sources of radiant energy are radioactive sources, and characterised in that each of the one or more sources is a distributed source, with each distributed source being configured to emit an elongated radiation pattern towards a respective level sensing nozzle, so as to illuminate a length of greater than one inch (2.54cm), the length being measured in the direction of the height of the vessel, such that thermal expansion or contraction of the vessel that alters the alignment of a source within the source well and nozzle does not significantly alter the amount of radiation illuminating the nozzle.
An air treatment unit comprising: a casing; a fan (23, 71); an imaging target in the casing; and an imaging unit comprising: an imaging device configured to capture an image of an imaging target in a casing of an air treatment device and acquire image data of the imaging target; and a control unit; the air treatment unit characterised by the control unit being configured to cause the imaging device to capture an image under a condition indicating that there are reduced mists in the casing, based on a state of the air treatment device, wherein the condition includes a condition that the fan (23, 71) of the air treatment device is in operation. a casing; a fan (23, 71); an imaging target in the casing; and an imaging unit comprising: an imaging device configured to capture an image of an imaging target in a casing of an air treatment device and acquire image data of the imaging target; and a control unit; the air treatment unit characterised by the control unit being configured to cause the imaging device to capture an image under a condition indicating that there are reduced mists in the casing, based on a state of the air treatment device, wherein the condition includes a condition that the fan (23, 71) of the air treatment device is in operation. an imaging device configured to capture an image of an imaging target in a casing of an air treatment device and acquire image data of the imaging target; and a control unit; the air treatment unit characterised by the control unit being configured to cause the imaging device to capture an image under a condition indicating that there are reduced mists in the casing, based on a state of the air treatment device, wherein the condition includes a condition that the fan (23, 71) of the air treatment device is in operation.
A system for calibrating a lidar subsystem, the system comprising: a lidar subsystem configured to: direct at least two beams toward a target, wherein the at least two beams comprises a first beam directed toward the target via a first scanning mirror and a second beam directed toward the target via a second scanning mirror, generate a first set of three-dimensional measurements for a plurality of points on the target for the first beam, and generate a second set of three-dimensional measurements for a plurality of points on the target for the second beam; and a processor configured to: receive, from the lidar subsystem, the first set of three-dimensional measurements and the second set of three-dimensional measurements, compare the first set of three-dimensional measurements with the second set of three-dimensional measurements; characterised by the processor being further configured to determine one or more offsets in locations of a plurality of facial features between the first set of three-dimensional measurements and the second set of three-dimensional measurements based on the comparison; and determine one or more calibration adjustments to be made between the first scanning mirror and the second scanning mirror based on the one or more offsets. direct at least two beams toward a target, wherein the at least two beams comprises a first beam directed toward the target via a first scanning mirror and a second beam directed toward the target via a second scanning mirror, generate a first set of three-dimensional measurements for a plurality of points on the target for the first beam, and generate a second set of three-dimensional measurements for a plurality of points on the target for the second beam; and a processor configured to: receive, from the lidar subsystem, the first set of three-dimensional measurements and the second set of three-dimensional measurements, compare the first set of three-dimensional measurements with the second set of three-dimensional measurements; characterised by the processor being further configured to determine one or more offsets in locations of a plurality of facial features between the first set of three-dimensional measurements and the second set of three-dimensional measurements based on the comparison; and determine one or more calibration adjustments to be made between the first scanning mirror and the second scanning mirror based on the one or more offsets. receive, from the lidar subsystem, the first set of three-dimensional measurements and the second set of three-dimensional measurements, compare the first set of three-dimensional measurements with the second set of three-dimensional measurements; characterised by the processor being further configured to determine one or more offsets in locations of a plurality of facial features between the first set of three-dimensional measurements and the second set of three-dimensional measurements based on the comparison; and determine one or more calibration adjustments to be made between the first scanning mirror and the second scanning mirror based on the one or more offsets.
A method for recovering a called service of a user terminal, comprising: receiving, by a policy and charging rules function entity, a reselection request for triggering the user terminal to re-initiate an IP multimedia sub-system, IMS, registration, from a second proxy call session control function, P-CSCF, and wherein the reselection request carries a P-CSCF re-select flag and a user name, the reselection request is generated according to a notification message that is sent by a serving call session control function, S-CSCF when the S-CSCF detects that an intial first P-CSCF is faulty and that carries the user name and a redundancy identifier, the second P-CSCF is an available P-CSCF selected by the S-CSCF; generating, by the policy and charging rules function entity, a registration triggering request when the reselection request that is sent by the P-CSCF and carries the P-CSCF re-select flag and the user name is received; and sending, by the policy and charging rules function entity, the generated registration triggering request to a gateway connected to the user terminal indicated by the user name, wherein the generated registration triggering request is based on Diameter and used for triggering the user terminal indicated by the user name to re-register with an available third P-CSCF selected by the user terminal to bear a called service of the user terminal. receiving, by a policy and charging rules function entity, a reselection request for triggering the user terminal to re-initiate an IP multimedia sub-system, IMS, registration, from a second proxy call session control function, P-CSCF, and wherein the reselection request carries a P-CSCF re-select flag and a user name, the reselection request is generated according to a notification message that is sent by a serving call session control function, S-CSCF when the S-CSCF detects that an intial first P-CSCF is faulty and that carries the user name and a redundancy identifier, the second P-CSCF is an available P-CSCF selected by the S-CSCF; generating, by the policy and charging rules function entity, a registration triggering request when the reselection request that is sent by the P-CSCF and carries the P-CSCF re-select flag and the user name is received; and sending, by the policy and charging rules function entity, the generated registration triggering request to a gateway connected to the user terminal indicated by the user name, wherein the generated registration triggering request is based on Diameter and used for triggering the user terminal indicated by the user name to re-register with an available third P-CSCF selected by the user terminal to bear a called service of the user terminal.
An apparatus comprising: a database (202, 301) comprising actions for workflows along with triggers for workflows, wherein a workflow comprises a trigger and an action, wherein triggers represent detected events originating from various sensors/cameras within a security ecosystem, wherein actions represent possible responses to the detected events, and wherein once the trigger is detected, the action is executed, and wherein the database (202, 301) also comprises triggers that cannot currently be detected by the security ecosystem and actions that cannot currently be executed by the security ecosystem, and wherein the database (202, 301) also comprises equipment necessary to detect the triggers that cannot currently be detected by the security ecosystem and equipment necessary to execute actions that cannot currently be executed by the security ecosystem; logic circuitry (203, 302) configured to: detect a user-created workflow comprising a trigger that cannot be detected by the security ecosystem or an action that cannot be executed by the security ecosystem; access the database (202, 301) to determine equipment necessary to execute the user-created workflow; and a graphical-user interface, GUI, configured to provide the user the equipment necessary to execute the user-created workflow. a database (202, 301) comprising actions for workflows along with triggers for workflows, wherein a workflow comprises a trigger and an action, wherein triggers represent detected events originating from various sensors/cameras within a security ecosystem, wherein actions represent possible responses to the detected events, and wherein once the trigger is detected, the action is executed, and wherein the database (202, 301) also comprises triggers that cannot currently be detected by the security ecosystem and actions that cannot currently be executed by the security ecosystem, and wherein the database (202, 301) also comprises equipment necessary to detect the triggers that cannot currently be detected by the security ecosystem and equipment necessary to execute actions that cannot currently be executed by the security ecosystem; logic circuitry (203, 302) configured to: detect a user-created workflow comprising a trigger that cannot be detected by the security ecosystem or an action that cannot be executed by the security ecosystem; access the database (202, 301) to determine equipment necessary to execute the user-created workflow; and detect a user-created workflow comprising a trigger that cannot be detected by the security ecosystem or an action that cannot be executed by the security ecosystem; access the database (202, 301) to determine equipment necessary to execute the user-created workflow; and a graphical-user interface, GUI, configured to provide the user the equipment necessary to execute the user-created workflow.