mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a diesel fuel and a lubricant basestock, comprising: contacting a feedstock having a T95 boiling point of 1100 °F (593 °C) or less, preferably 1000 °F (538 °C) or less and comprising at least 100 wppm, preferably at least 1000 wppm of sulfur with a dewaxing catalyst under effective conversion conditions to produce a converted effluent, the effective conversion conditions being effective for at least 25% conversion of the feedstock relative to a conversion temperature of 370°C, the dewaxing catalyst comprising a unidimensional, 10-member ring pore molecular sieve, at least one Group VI metal, at least one Group VIII metal, and a binder having a surface area of 100 m 2 /g or less, wherein the effective conversion conditions comprise a temperature of 300°C to 450°C, a hydrogen partial pressure of from 3.5 MPag to 34.6 MPag (500 psig to 5000 psig), a hydrogen circulation rate of from 178 m 3 /m 3 (1000 SCF/B) to 1781 m 3 /m 3 (10,000 scf/B), and an LHSV from 0.2 hr -1 to 10 hr -1; contacting at least a portion of the converted effluent with a supported hydrotreating catalyst under effective hydrotreating conditions to produce a product effluent, the hydrotreating catalyst comprising at least one Group VI metal and at least one Group VIII metal wherein the hydrotreating conditions include a temperature that is at least 15 °C lower than the temperature used in the effective conversion conditions; and fractionating the converted, hydrotreated effluent to form at least a distillate fuel product fraction and a lubricant base oil product fraction. contacting a feedstock having a T95 boiling point of 1100 °F (593 °C) or less, preferably 1000 °F (538 °C) or less and comprising at least 100 wppm, preferably at least 1000 wppm of sulfur with a dewaxing catalyst under effective conversion conditions to produce a converted effluent, the effective conversion conditions being effective for at least 25% conversion of the feedstock relative to a conversion temperature of 370°C, the dewaxing catalyst comprising a unidimensional, 10-member ring pore molecular sieve, at least one Group VI metal, at least one Group VIII metal, and a binder having a surface area of 100 m 2 /g or less, wherein the effective conversion conditions comprise a temperature of 300°C to 450°C, a hydrogen partial pressure of from 3.5 MPag to 34.6 MPag (500 psig to 5000 psig), a hydrogen circulation rate of from 178 m 3 /m 3 (1000 SCF/B) to 1781 m 3 /m 3 (10,000 scf/B), and an LHSV from 0.2 hr -1 to 10 hr -1; contacting at least a portion of the converted effluent with a supported hydrotreating catalyst under effective hydrotreating conditions to produce a product effluent, the hydrotreating catalyst comprising at least one Group VI metal and at least one Group VIII metal wherein the hydrotreating conditions include a temperature that is at least 15 °C lower than the temperature used in the effective conversion conditions; and fractionating the converted, hydrotreated effluent to form at least a distillate fuel product fraction and a lubricant base oil product fraction.
A cover for an electronic padlock with a knob, wherein the padlock comprises a rotor assembly formed by an electronic cylinder joined in continuity to an electronic knob, a body wherein the cylinder and a padlock ring are housed, the knob incorporating a reading base for the opening of the padlock, the cover comprising: - a protective casing of the body intended to protect the body of the padlock, - a protective casing of the knob, comprising an inner space for housing the knob - a support comprising fastening means for fastening the support to the body of the padlock, wherein: - the protective casing of the knob is configured to be fastened to the body of the padlock through the support and is formed by a head solidly joined to a bushing. - a protective casing of the body intended to protect the body of the padlock, - a protective casing of the knob, comprising an inner space for housing the knob - a support comprising fastening means for fastening the support to the body of the padlock, - the protective casing of the knob is configured to be fastened to the body of the padlock through the support and is formed by a head solidly joined to a bushing.
A medical balloon for a balloon pump, the medical balloon having a first end and a second end and a port at one of the ends for engaging a catheter for receiving an inflation fluid into the balloon, the balloon having one or more exterior walls defining, when the balloon is inflated at substantially a standard operating pressure, a taper along at least a part of the length of the balloon, characterised in that the taper has two or more consecutive tapering sections, each tapering section having a different, substantially constant, gradual angle of tapering, the balloon being substantially asymmetrical about a mid-point between the first and second ends when inflated.
A method performed by a base station for handling downlink, DL, hybrid automatic repeat request, HARQ, transmissions for a user equipment, UE, operating in a connected discontinuous reception, C-DRX, mode, wherein the method comprises: performing a first HARQ transmission comprising information related to a single HARQ process to the UE with an associated new data indicator, NDI, wherein a toggling of the NDI indicating at least a change of information of the single HARQ process over a previous HARQ transmission, said first HARQ transmission moreover starting a C-DRX inactivity timer; determining that a HARQ negative acknowledgment, NACK has been received, for the transmitted information from the UE; detecting whether a measurement gap has started and if the measurement gap has started, awaiting an end of the measurement gap; determining whether the C-DRX inactivity timer has expired at a time where the measurement gap has ended; and if the C-DRX inactivity timer has not expired, performing a second HARQ transmission, which is a retransmission of said information, with associated NDI to the UE for the single HARQ process, wherein a value of the NDI is toggled in relation to a value of the NDI of the first HARQ transmission. performing a first HARQ transmission comprising information related to a single HARQ process to the UE with an associated new data indicator, NDI, wherein a toggling of the NDI indicating at least a change of information of the single HARQ process over a previous HARQ transmission, said first HARQ transmission moreover starting a C-DRX inactivity timer; determining that a HARQ negative acknowledgment, NACK has been received, for the transmitted information from the UE; detecting whether a measurement gap has started and if the measurement gap has started, awaiting an end of the measurement gap; determining whether the C-DRX inactivity timer has expired at a time where the measurement gap has ended; and if the C-DRX inactivity timer has not expired, performing a second HARQ transmission, which is a retransmission of said information, with associated NDI to the UE for the single HARQ process, wherein a value of the NDI is toggled in relation to a value of the NDI of the first HARQ transmission.
System for detecting and destroying electrically conductive particles in a medium circulation, the system comprising a device having a uniform frame, wherein inside the device there is a flow space for a flow-through of a medium circulation occurring inside thereof in its longitudinal direction, which flow space has, when viewed in a crosswise plane perpendicular to its longitudinal direction, adjacent narrow flow ways in one or more directions, wherein opposite walls (3a, 3a') of the flow ways are arranged by means of power supply means as electrodes in potentials differing from each other, whereby electrically conductive particles getting drifted in connection therewith are arranged to be detected and destroyed by causing a short-circuit between the electrodes, wherein the flow space formed of the narrow flow ways consists of, when viewed in its cross section, two or more structurally parallel flow zones (VZ1, VZ2, VZ3), characterized in that, the flow zones (VZ1, VZ2, VZ3) are coupled as parallel electric circuits with a common power supply means in order to process short-circuit situations occurring in each flow zone (VZ1, VZ2, VZ3) independently with respect to each other, wherein the power supply means are provided with an auxiliary power arrangement, such as a supplementary power supply coupling and/or a condenser coupling, in order to produce a higher current needed for destroying a particle that has caused a short-circuit situation.
A flexible display device comprising: a flexible display; a first sensor configured to sense bending data of the display; a controller configured to determine a size and location of an exposed area of the display which is exposed in a rolled state of the display based on the sensing result of the first sensor, wherein a rolled state is a state where at least part of the flexible display is rolled; and a second sensor configured to sense a user grip area within the exposed area, the user grip area corresponding to a user grip, wherein the controller is configured to, in response to the exposed area being determined and the user grip area being sensed, control the display to display a screen in an area of the exposed area which excludes the user grip area, wherein the first sensor is a bend sensor, wherein the second sensor is a touch sensor configured to sense a touched area on the display, wherein the controller is further configured to, in response to the touched area being larger than a predetermined size and being sensed for a predetermined time while the display device is in the rolled state, determine that the touched area is the user grip area, and wherein in response to the flexible display device being rolled so that an edge area of the display engages with an exposed area of the display, the controller consecutively displays an object in the boundary portion between the edge area of the display and the exposed area which is engaged with the edge area. a flexible display; a first sensor configured to sense bending data of the display; a controller configured to determine a size and location of an exposed area of the display which is exposed in a rolled state of the display based on the sensing result of the first sensor, wherein a rolled state is a state where at least part of the flexible display is rolled; and a second sensor configured to sense a user grip area within the exposed area, the user grip area corresponding to a user grip, wherein the controller is configured to, in response to the exposed area being determined and the user grip area being sensed, control the display to display a screen in an area of the exposed area which excludes the user grip area, wherein the first sensor is a bend sensor, wherein the second sensor is a touch sensor configured to sense a touched area on the display, wherein the controller is further configured to, in response to the touched area being larger than a predetermined size and being sensed for a predetermined time while the display device is in the rolled state, determine that the touched area is the user grip area, and wherein in response to the flexible display device being rolled so that an edge area of the display engages with an exposed area of the display, the controller consecutively displays an object in the boundary portion between the edge area of the display and the exposed area which is engaged with the edge area.
An alignment assembly comprising: a base; a support leg extending from the base, the leg configured to support a portion of a turbine system structure; a first support leg portion disposed on a surface of the base and coupleable thereto; a second support leg portion angularly oriented relative to the first support leg portion and coupleable to the turbine system structure; and a jack assembly moveable on the surface of the base and configured to vertically and laterally adjust the turbine system structure, characterised in that it comprises at least one low friction plate disposed on the surface of the base to provide slideable adjustment of the jack assembly. a base; a support leg extending from the base, the leg configured to support a portion of a turbine system structure; a first support leg portion disposed on a surface of the base and coupleable thereto; a second support leg portion angularly oriented relative to the first support leg portion and coupleable to the turbine system structure; and a jack assembly moveable on the surface of the base and configured to vertically and laterally adjust the turbine system structure, characterised in that it comprises at least one low friction plate disposed on the surface of the base to provide slideable adjustment of the jack assembly.
A sample injection system comprising: a vacuum source (211, 411); a conduit in communication with the vacuum source (211, 411); a fluid sensor configured to detect the presence of the fluid in the conduit; a sample loop in communication with the conduit; a sipper in communication with the sample loop; and a robotic system for positioning the sipper to aspirate a fluid sample from a sample reservoir (401, 802), wherein the robotic system is configured to lower the sipper into the sample reservoir (401, 802) until fluid is detected by fluid sensor, and retract the sipper from the reservoir (401, 802) when fluid is detected by the fluid sensor, and wherein the fluid sensor is located in the conduit between the sample loop and the vacuum source (211, 411) to detect the presence of fluid in the conduit. a vacuum source (211, 411); a conduit in communication with the vacuum source (211, 411); a fluid sensor configured to detect the presence of the fluid in the conduit; a sample loop in communication with the conduit; a sipper in communication with the sample loop; and a robotic system for positioning the sipper to aspirate a fluid sample from a sample reservoir (401, 802), wherein the robotic system is configured to lower the sipper into the sample reservoir (401, 802) until fluid is detected by fluid sensor, and retract the sipper from the reservoir (401, 802) when fluid is detected by the fluid sensor, and lower the sipper into the sample reservoir (401, 802) until fluid is detected by fluid sensor, and retract the sipper from the reservoir (401, 802) when fluid is detected by the fluid sensor, and wherein the fluid sensor is located in the conduit between the sample loop and the vacuum source (211, 411) to detect the presence of fluid in the conduit.
A wire clamp for use in an electrical terminal crimping system, the wire clamp comprising: a base including a first upright portion and a second upright portion, the base including a cavity defined between the first and second upright portions; and a pair of first and second jaws (136, 138) mounted to the base and extending into the cavity, the first jaw pivotally mounted to the first upright portion via a first pivot axle, the second jaw pivotally mounted to the second upright portion via a second pivot axle that is spaced apart laterally from the first pivot axle, the first and second jaws each including a respective hook member, the first and second jaws crisscrossing each other at an overlap area, the hook members of the first and second jaws defining a mouth therebetween that is configured to receive a wire, the mouth located above the overlap area, wherein the first and second jaws are spring-biased to pivot relative to the base from an open position towards a closed position, and wherein a size of the mouth adjusts automatically to a size of the wire within the mouth when the first and second jaws are allowed to pivot towards the closed position, characterised in that, the first jaw is connected to the second jaw via a link that is disposed between and connects the two jaws, wherein pivoting of the first jaw relative to the base causes the second jaw to pivot relative to the base via the link. a base including a first upright portion and a second upright portion, the base including a cavity defined between the first and second upright portions; and a pair of first and second jaws (136, 138) mounted to the base and extending into the cavity, the first jaw pivotally mounted to the first upright portion via a first pivot axle, the second jaw pivotally mounted to the second upright portion via a second pivot axle that is spaced apart laterally from the first pivot axle, the first and second jaws each including a respective hook member, the first and second jaws crisscrossing each other at an overlap area, the hook members of the first and second jaws defining a mouth therebetween that is configured to receive a wire, the mouth located above the overlap area, wherein the first and second jaws are spring-biased to pivot relative to the base from an open position towards a closed position, and wherein a size of the mouth adjusts automatically to a size of the wire within the mouth when the first and second jaws are allowed to pivot towards the closed position, characterised in that, the first jaw is connected to the second jaw via a link that is disposed between and connects the two jaws, wherein pivoting of the first jaw relative to the base causes the second jaw to pivot relative to the base via the link.
Process for the treatment of wastewater containing sulfate salts of cations susceptible of forming soluble sulfides, comprising the steps of: - providing a bioreactor suitable for the reduction of sulfates to sulfides; - providing an electrochemical cell through which a current is passed, having a central compartment connected by cation exchange membranes to an adjacent cathode compartment, and to an adjacent anode compartment, thereby generating H 2 in the cathode compartment, and O 2 in the anode compartment; - passing a cation-bearing aqueous solution through the central compartment; - providing an acidic aqueous solution in the anode compartment; - circulating a sulfidic solution (11, 12) in a first loop over a path passing through the bioreactor and the cathode compartment, whereby the pH of the solution is maintained between 6 and 9 by adjusting the current through the electrochemical cell; - adding the wastewater to the first loop at a set flow rate; and, - bleeding a minor part of the solution from the first loop at a rate corresponding to the flow rate of feeding the wastewater. - providing a bioreactor suitable for the reduction of sulfates to sulfides; - providing an electrochemical cell through which a current is passed, having a central compartment connected by cation exchange membranes to an adjacent cathode compartment, and to an adjacent anode compartment, thereby generating H 2 in the cathode compartment, and O 2 in the anode compartment; - passing a cation-bearing aqueous solution through the central compartment; - providing an acidic aqueous solution in the anode compartment; - circulating a sulfidic solution (11, 12) in a first loop over a path passing through the bioreactor and the cathode compartment, whereby the pH of the solution is maintained between 6 and 9 by adjusting the current through the electrochemical cell; - adding the wastewater to the first loop at a set flow rate; and, - bleeding a minor part of the solution from the first loop at a rate corresponding to the flow rate of feeding the wastewater.
A security token for facilitating access to a remote computing service via a mobile device external to the security token, said security token comprising an NFC interface, a smart card integrated circuit and a smart card applet stored in and executable by said smart card integrated circuit, wherein the smart card applet is arranged to support a cryptographic challenge-response protocol executable by the mobile device, characterized in that the security token further comprises a real-time clock, wherein said real-time clock is arranged to support a time-based cryptographic authentication protocol.
A method for driving an organic electroluminescent element in which a first current peak value is applied to a first light-emitting layer and a second current peak value is applied to a second light-emitting layer, the method comprising the steps of: applying the second current peak value having a lower current density than the first current peak value to the second light-emitting layer exhibiting a lower luminous efficiency than the first light-emitting layer, at a current density of the second current peak value; and applying the first current peak value that is higher than the second current peak value to the first light-emitting layer, characterized in that an application time of the first current peak value is shorter than an application time of the second current peak value. applying the second current peak value having a lower current density than the first current peak value to the second light-emitting layer exhibiting a lower luminous efficiency than the first light-emitting layer, at a current density of the second current peak value; and applying the first current peak value that is higher than the second current peak value to the first light-emitting layer, characterized in that an application time of the first current peak value is shorter than an application time of the second current peak value.
Sleeve adapter, • comprising a cylindrical tubing section • and a seal that is made from an elastically deformable material and encloses the tubing section circumferentially on the outside, where the seal incorporates a first section by which it sits tightly against the tubing section, and a second section that can be moved radially outwards relative to the tubing section, • and comprising at least one expanding element that is arranged between the tubing section and the second section of the seal and which can be moved radially outwards, in such a way that the outside diameter of the seal can be changed according to whichever position the expanding element is in, • where the expanding element is designed as a wedge, characterised in that at least one abutting piece that co-acts with the wedge is assigned to the wedge so that the wedge and the abutting piece can be moved relative to one another in such a way that the effective circumference inside the seal that encloses the tubing section, the wedge and the abutting piece and so the inside diameter of the seal have a specific value according to whichever position the wedge is in relative to the abutting piece and increase as the overlap of wedge and abutting piece increases, and that the abutting piece is designed as a separate element. • comprising a cylindrical tubing section • and a seal that is made from an elastically deformable material and encloses the tubing section circumferentially on the outside, • and comprising at least one expanding element that is arranged between the tubing section and the second section of the seal and which can be moved radially outwards, • where the expanding element is designed as a wedge,