mhurhangee/patent-ind-claim-en huggingface dataset:
A process configuration for the production of low sulfur fuel products from heavy residue feedstocks comprising: a) feeding a feedstock comprising a heavy oil, and a hydrogen stream to one or more ebullated-bed reactors to provide a first effluent; and b) feeding said first effluent from said one or more ebullated-bed reactors to a separation section comprising separation vessels at different temperatures and pressures to recover hydrogen-rich gases and liquid effluents, and c) feeding said liquid effluents from said separation section to atmospheric and vacuum distillation units to recover a vacuum residue stream, vacuum gas oil stream(s), naphtha stream(s), and middle distillate stream(s); and d) feeding a light cycle oil stream from a fluid catalytic cracking unit and a hydrogen stream to a fixed-bed or ebullated-bed hydrodesulfurization unit to provide a second liquid effluent and a hydrogen-rich vapor stream wherein said hydrogen stream is obtained from the said hydrogen-rich gas streams in step (b) and said hydrogen-rich vapor stream from step (d) is thereafter returned to said separation section in step (b) ; and e) fractionating said second liquid effluent in a stripping column to separate a wild naphtha stream and a stabilized low sulfur light cycle oil stream; and f) blending said low sulfur light cycle oil stream with said vacuum residue stream from step c) to provide a final fuel oil product; and wherein said fuel oil product contains no more than 0.5% weight percent sulfur, less than 18% weight percent conradson carbon residue, less than 350 wppm vanadium, a density of less than 991 kg/m3 at 15°C, less than 0.1 weight percent sediment by IP-390, and a viscosity of less than 380 centistokes at 50°C. a) feeding a feedstock comprising a heavy oil, and a hydrogen stream to one or more ebullated-bed reactors to provide a first effluent; and b) feeding said first effluent from said one or more ebullated-bed reactors to a separation section comprising separation vessels at different temperatures and pressures to recover hydrogen-rich gases and liquid effluents, and c) feeding said liquid effluents from said separation section to atmospheric and vacuum distillation units to recover a vacuum residue stream, vacuum gas oil stream(s), naphtha stream(s), and middle distillate stream(s); and d) feeding a light cycle oil stream from a fluid catalytic cracking unit and a hydrogen stream to a fixed-bed or ebullated-bed hydrodesulfurization unit to provide a second liquid effluent and a hydrogen-rich vapor stream wherein said hydrogen stream is obtained from the said hydrogen-rich gas streams in step (b) and said hydrogen-rich vapor stream from step (d) is thereafter returned to said separation section in step (b) ; and e) fractionating said second liquid effluent in a stripping column to separate a wild naphtha stream and a stabilized low sulfur light cycle oil stream; and f) blending said low sulfur light cycle oil stream with said vacuum residue stream from step c) to provide a final fuel oil product; and
A blood mixer comprising: a support structure supporting the components of the mixer a tray adapted to house a blood collecting bag having a blood tube attached thereto, and configured to measure the weight of the collected blood in the blood collecting bag , and further comprising a mechanism for causing a repeated tilting of at least the tray in at least one direction characterized in that a pump is provided on the support structure and configured to draw blood from the donor to a blood collecting bag through said blood tube , and in that the pump is configured to exert a kneading action on the blood tube by means of at least two kneading elements arranged to alternatingly displace the contents of the tube in the direction towards the bag, over one segment of the tube each, thereby preventing back flow inside the tube, in that the mixer further comprises a sensor unit which comprises a hemoglobin meter, said hemoglobin meter configured to continuously measure the hemoglobin value of the blood flowing in a tubing secured to the mixer, and in that information recorded by the sensors is stored in a suitable format, preferably as text files. a support structure supporting the components of the mixer a tray adapted to house a blood collecting bag having a blood tube attached thereto, and configured to measure the weight of the collected blood in the blood collecting bag , and further comprising a mechanism for causing a repeated tilting of at least the tray in at least one direction a pump is provided on the support structure and configured to draw blood from the donor to a blood collecting bag through said blood tube , and in that the pump is configured to exert a kneading action on the blood tube by means of at least two kneading elements arranged to alternatingly displace the contents of the tube in the direction towards the bag, over one segment of the tube each, thereby preventing back flow inside the tube, in that the mixer further comprises a sensor unit which comprises a hemoglobin meter, said hemoglobin meter configured to continuously measure the hemoglobin value of the blood flowing in a tubing secured to the mixer, and in that information recorded by the sensors is stored in a suitable format, preferably as text files.
A nucleic acid probe for detecting a target nucleic acid, wherein the target nucleic acid comprises a probe-binding region with which the nucleic acid probe hybridizes; at least one terminal of the probe-binding region is a guanine base, and one or more cytosine bases are present within 1 to 7 bases from the guanine base in the probe-binding region; the nucleic acid probe comprises an oligonucleotide having a cytosine base facing the guanine base on a terminal and a fluorescent dye conjugated to the cytosine base; the fluorescent dye is a fluorescent dye that is quenched by the interaction with a guanine base; and the oligonucleotide is complementary to the nucleic acid in the probe-binding region except for one or more cytosine bases present within 1 to 7 bases from the terminal guanine base, wherein one or more bases in the oligonucleotide facing the one or more cytosine bases are a guanine base or a hypoxanthine base, provided that the base in the oligonucleotide facing the cytosine base closest to the terminal guanine base among the one or more cytosine bases is a hypoxanthine base.
A method of disinfecting a surface in need of disinfecting, within an area, said method comprising: dispersing into said area a multiplicity of droplets of a first aqueous composition comprising a first reactant compound that is either a peroxide compound or an iodine salt compound, the droplets of the first aqueous composition being no smaller in size than about 10 microns and no larger in size than about 80 microns; allowing a time sufficient for said first aqueous composition to distribute throughout the area and to deposit and coalesce into a layer upon said surface; dispersing into said area a multiplicity of droplets of a second aqueous composition comprising a second reactant compound that is the other of the first reactant compound, the droplets of the second aqueous composition being no smaller in size than about 10 microns and no larger in size than about 80 microns; and, allowing a second sufficient time for the droplets of the second aqueous composition to deposit onto the coalesced layer of the first aqueous composition to form a reaction layer thereby forming a biocide reactant compound of iodine in situ in the reaction layer and disinfecting said surface. dispersing into said area a multiplicity of droplets of a first aqueous composition comprising a first reactant compound that is either a peroxide compound or an iodine salt compound, the droplets of the first aqueous composition being no smaller in size than about 10 microns and no larger in size than about 80 microns; allowing a time sufficient for said first aqueous composition to distribute throughout the area and to deposit and coalesce into a layer upon said surface; dispersing into said area a multiplicity of droplets of a second aqueous composition comprising a second reactant compound that is the other of the first reactant compound, the droplets of the second aqueous composition being no smaller in size than about 10 microns and no larger in size than about 80 microns; and, allowing a second sufficient time for the droplets of the second aqueous composition to deposit onto the coalesced layer of the first aqueous composition to form a reaction layer thereby forming a biocide reactant compound of iodine in situ in the reaction layer and disinfecting said surface.
A downlink data transmission method, comprising: receiving (S402), by an access network device, downlink data of a terminal that is sent by a user plane device by using a shared bearer; characterized by receiving (S403), by the access network device, a context setup request message from a control plane device, wherein the context setup request message carries path-related information of the terminal; setting up (S404), by the access network device, a radio bearer between the access network device and the terminal based on the context setup request message; and sending , by the access network device, the downlink data to the terminal by using the radio bearer. receiving (S402), by an access network device, downlink data of a terminal that is sent by a user plane device by using a shared bearer; characterized by receiving (S403), by the access network device, a context setup request message from a control plane device, wherein the context setup request message carries path-related information of the terminal; setting up (S404), by the access network device, a radio bearer between the access network device and the terminal based on the context setup request message; and sending , by the access network device, the downlink data to the terminal by using the radio bearer.
A method for wireless communications by a user equipment, UE (120; 1200), comprising: receiving a first physical downlink control channel, PDCCH, in a control channel monitoring occasion (702; 1002), the first PDCCH indicating at least one dynamic control resource set, CORESET (704; 1004); and receiving a second PDCCH within the at least one dynamic CORESET, wherein the second PDCCH is received in accordance with at least one quasi-co-located, QCL, assumption for the at least one dynamic CORESET. receiving a first physical downlink control channel, PDCCH, in a control channel monitoring occasion (702; 1002), the first PDCCH indicating at least one dynamic control resource set, CORESET (704; 1004); and receiving a second PDCCH within the at least one dynamic CORESET, wherein the second PDCCH is received in accordance with at least one quasi-co-located, QCL, assumption for the at least one dynamic CORESET.
A customizable multi-stage fluid treatment assembly for an appliance comprising a base cartridge , a connector , at least one first variable cartridge and a cap that together function to provide a sealed housing , that is configured to engage the filter head assembly of the appliance , eliminating an exterior housing, wherein the base cartridge has a first end , a second end , and a sidewall extending between the first and second ends enclosing an interior volume, wherein a treatment medium is spaced within the interior volume between the first and second ends, such that the first and second ends of the base cartridge are configured to receive a fluid, bring the fluid into operative contact with the treatment medium, and dispense the fluid from the opposing end of the base cartridge; the connector is coupled with the first end of the base cartridge and has an inlet and an outlet for receiving and dispensing the fluid to and from the appliance and configured to receive and dispense the fluid to and from the base cartridge , wherein the connector is configured to receive untreated water through the inlet and dispense treated water through the outlet after it has been treated by at least the treatment medium; the at least first variable cartridge has a first coupler end configured to be removably engaged by hand with the second end of the base cartridge , a first receiver end , and a first wall extending between the first coupler end and the first receiver end enclosing a first inside volume, wherein a first filter medium is spaced within the first inside volume between the first coupler and first receiver ends , such that the first coupler and first receiver ends of the first variable cartridge are configured to receive the fluid, bring the fluid into operative contact with the first filter medium, and dispense the fluid from the opposing end of the first variable cartridge ; the cap is coupled with the first receiver end of the first variable cartridge and encloses the sealed housing formed within the sidewall of the base cartridge and the first wall of the first variable cartridge wherein a channel is formed within the sealed housing between an inlet or outlet of the connector and the cap (100, 162such that segments of the channel are provided in each of the base cartridge and the first variable cartridge , at least the first variable cartridge , and the base cartridge delivering the treated water back to the appliance wherein the cap is configured to direct the fluid to flow between the first variable cartridge and the channel , and wherein the channel is configured to allow the fluid to travel to and from the connector through the channel, the first filter medium, and the treatment medium.
A system for determining material accumulation relative to ground engaging tools of an agricultural implement , the system comprising a frame member extending along a first direction and first and second ground engaging tools coupled to the frame member and spaced apart from each other in the first direction such that an open space is defined between the first and second ground engaging tools , the first and second ground engaging tools being configured to engage soil within a field as the agricultural implement is moved across the field, the system being characterized by : a sensing arm aligned with the open space defined between the first and second ground engaging tools , the sensing arm being displaceable from a neutral position by material accumulation between the first and second ground engaging tools, wherein the sensing arm does not engage the ground when in the neutral position; a sensor configured to detect a parameter indicative of displacement of the sensing arm ; and a controller communicatively coupled to the sensor , the controller configured to monitor the parameter based at least in part on data received from the sensor to determine a presence of material accumulation between the first and second ground engaging tools . a sensing arm aligned with the open space defined between the first and second ground engaging tools , the sensing arm being displaceable from a neutral position by material accumulation between the first and second ground engaging tools, wherein the sensing arm does not engage the ground when in the neutral position; a sensor configured to detect a parameter indicative of displacement of the sensing arm ; and a controller communicatively coupled to the sensor , the controller configured to monitor the parameter based at least in part on data received from the sensor to determine a presence of material accumulation between the first and second ground engaging tools .
Method for manufacturing a luminescent horological component for a portable object comprising the following steps: - mixing an epoxy resin and a phosphorescent pigment in an amount of 40% by mass; - adding to the mixture a fluorescent pigment in an amount of 3% by mass; - optionally, adding silane to the mixture in an amount of 10% by mass; - adding a hardener and mixing everything mechanically to obtain a homogenous solution; - pouring under vacuum the solution obtained into a mould and cross-linking the solution to obtain a luminescent moulded part; - after hardening, removing the part from the mould and blanking it by laser to obtain the luminescent horological component. - mixing an epoxy resin and a phosphorescent pigment in an amount of 40% by mass; - adding to the mixture a fluorescent pigment in an amount of 3% by mass; - optionally, adding silane to the mixture in an amount of 10% by mass; - adding a hardener and mixing everything mechanically to obtain a homogenous solution; - pouring under vacuum the solution obtained into a mould and cross-linking the solution to obtain a luminescent moulded part; - after hardening, removing the part from the mould and blanking it by laser to obtain the luminescent horological component.
A method of calibrating a sensor comprising a luminescent compound having a luminescence that depends on the concentration of an analyte, and a detector configured to detect light emitted by the luminescent compound , the method comprising: providing (S10) a component comprising the luminescent compound in a package that maintains exposure of the luminescent compound to the analyte at a known first concentration; assembling (S12) the component into the sensor and measuring (S14) a first value of a characteristic of the luminescence of the luminescent compound while exposed to the analyte at the first concentration; measuring (S16) a second value of the characteristic of the luminescence of the luminescent compound while exposed to the analyte at a known second concentration different from the first concentration; and determining (S18) parameters representing the dependence of the characteristic of the luminescence on concentration of the analyte using the first value and the second value, characterised in that the step of measuring the first value is performed during a predetermined time period following the removal of the component from the package within which the luminescent compound remains exposed to the analyte at the first concentration. providing (S10) a component comprising the luminescent compound in a package that maintains exposure of the luminescent compound to the analyte at a known first concentration; assembling (S12) the component into the sensor and measuring (S14) a first value of a characteristic of the luminescence of the luminescent compound while exposed to the analyte at the first concentration; measuring (S16) a second value of the characteristic of the luminescence of the luminescent compound while exposed to the analyte at a known second concentration different from the first concentration; and determining (S18) parameters representing the dependence of the characteristic of the luminescence on concentration of the analyte using the first value and the second value, characterised in that the step of measuring the first value is performed during a predetermined time period following the removal of the component from the package within which the luminescent compound remains exposed to the analyte at the first concentration.
Modbus network comprising: a first network subscriber that has a first control circuit , wherein the first control circuit is configured to send first input data together with a write request via a first port of the first network subscriber to a third network subscriber and to request first output data from the third network subscriber by means of a read request; a second network subscriber that has a second control circuit, wherein the second control circuit is configured to send second input data together with a write request via a second port of the second network subscriber to the third network subscriber and to request second output data from the third network subscriber by means of a read request; and the third network subscriber , which has a third control circuit , wherein the third control circuit is configured to take the first and second input data as a basis for using a control algorithm implemented in the third control circuit to determine the first and second output data; characterized in that the third network subscriber is in the form of a logical master and a Modbus a slave; the first network subscriber is in the form of a Modbus master and a logical slave; and the second network subscriber is in the form of a Modbus master and a logical slave. a first network subscriber that has a first control circuit , wherein the first control circuit is configured to send first input data together with a write request via a first port of the first network subscriber to a third network subscriber and to request first output data from the third network subscriber by means of a read request; a second network subscriber that has a second control circuit, wherein the second control circuit is configured to send second input data together with a write request via a second port of the second network subscriber to the third network subscriber and to request second output data from the third network subscriber by means of a read request; and the third network subscriber , which has a third control circuit , wherein the third control circuit is configured to take the first and second input data as a basis for using a control algorithm implemented in the third control circuit to determine the first and second output data; characterized in that the third network subscriber is in the form of a logical master and a Modbus a slave; the first network subscriber is in the form of a Modbus master and a logical slave; and the second network subscriber is in the form of a Modbus master and a logical slave.
A method of testing a brake system comprising carrying out a method of monitoring brake performance of the brake system of a machine for one or more brake engagements; wherein the method of monitoring brake performance of the brake system comprises: detecting an input; operating the brake system to engage in response to the input; detecting the brake engagement of the brake system in response to the input; determining a brake delay as the time period between the input and the brake engagement; providing an alert based upon the brake delay; and triggering disengagement of the brake system when brake engagement is detected, wherein the machine is configured to carry out the brake test autonomously. detecting an input; operating the brake system to engage in response to the input; detecting the brake engagement of the brake system in response to the input; determining a brake delay as the time period between the input and the brake engagement; providing an alert based upon the brake delay; and triggering disengagement of the brake system when brake engagement is detected, wherein the machine is configured to carry out the brake test autonomously.