mhurhangee/patent-ind-claim-en huggingface dataset:
A method for removing contaminants in a biogas comprising: (a) heating and aerating anaerobic digester effluent in an aeration reactor to produce a first effluent with an alkaline pH; (b) contacting the first effluent from step (a) with an input biogas in a reactor to produce a treated biogas and a second effluent that has a lower pH as compared to the pH of the first effluent; (c) recovering the treated biogas from step (b), wherein the treated biogas has less H 2 S as compared to the input biogas; (d) aerating the second effluent of step (b) to produce a third effluent, wherein the third effluent has an alkaline pH; and (e) contacting the third effluent of step (d) with the recovered biogas of step (c) to remove CO 2 in the biogas. (a) heating and aerating anaerobic digester effluent in an aeration reactor to produce a first effluent with an alkaline pH; (b) contacting the first effluent from step (a) with an input biogas in a reactor to produce a treated biogas and a second effluent that has a lower pH as compared to the pH of the first effluent; (c) recovering the treated biogas from step (b), wherein the treated biogas has less H 2 S as compared to the input biogas; (d) aerating the second effluent of step (b) to produce a third effluent, wherein the third effluent has an alkaline pH; and (e) contacting the third effluent of step (d) with the recovered biogas of step (c) to remove CO 2 in the biogas.
A measurement system for use in an exercise machine, which exercise machine comprises a lifting mechanism and an engaging member for selectively engaging a number of stacked weights to the lifting mechanism, the measurement system comprising a pair of cooperating members including a range meter and a reflector member , wherein one of the cooperating members is connected to the engaging member, wherein the range meter is directed to measure a distance to the reflector member to determine a distance which correlates to the weight of the selectively engaged weights; characterized in that the other of the cooperating members is connected to the lifting mechanism, such that the reflector member and the range meter follow each other during a weight-lifting motion, the measurement system comprising an operation detection mechanism , comprising a motion sensor , communicatively connected to trigger the range meter to make a distance measurement responsive to detection of operation of the exercise machine, wherein the measurement system is configured to provide a weight measurement based on the determined distance, and a motion repetition measurement based on acceleration detected by the motion sensor. a pair of cooperating members including a range meter and a reflector member , wherein one of the cooperating members is connected to the engaging member, wherein the range meter is directed to measure a distance to the reflector member to determine a distance which correlates to the weight of the selectively engaged weights; characterized in that the other of the cooperating members is connected to the lifting mechanism, such that the reflector member and the range meter follow each other during a weight-lifting motion, the measurement system comprising an operation detection mechanism , comprising a motion sensor , communicatively connected to trigger the range meter to make a distance measurement responsive to detection of operation of the exercise machine, wherein the measurement system is configured to provide a weight measurement based on the determined distance, and a motion repetition measurement based on acceleration detected by the motion sensor.
An ensemble of DNA formations for detecting a biomarker, the formations including: a detector adapted to accept a target biomarker and thereby to release a trigger DNA sequence by competitive hybridisation; an amplifier adapted for hybridisation with the trigger DNA sequence and thereby to release a key DNA sequence and the trigger DNA sequence or a further trigger DNA sequence, wherein the release is by competitive hybridisation; and a responder adapted for hybridisation with the key DNA sequence and thereby to cause a signal detectable to an observer to be produced. a detector adapted to accept a target biomarker and thereby to release a trigger DNA sequence by competitive hybridisation; an amplifier adapted for hybridisation with the trigger DNA sequence and thereby to release a key DNA sequence and the trigger DNA sequence or a further trigger DNA sequence, wherein the release is by competitive hybridisation; and a responder adapted for hybridisation with the key DNA sequence and thereby to cause a signal detectable to an observer to be produced.
A method , performed by a first Antenna Processing Unit, APU for sequential transmit precoding in a radio stripe system , wherein the radio stripe system comprises at least two APUs and a Central Processing Unit, CPU , the at least two APUs being connected in series from the CPU , wherein the radio stripe system serves at least two User Equipment, UEs, , the method comprising: - obtaining channel estimates for channels to the at least two UEs ; - determining a precoding filter based on the obtained channel estimates, wherein the precoding filter is going to be applied to signals that are to be transmitted from the first APU to the at least two UEs ; - determining effective precoded channels for the signals to the at least two UEs based on the determined precoding filter and the obtained channel estimates, wherein the effective precoded channels represent the effective channel created after the precoding filter being applied to each channel for the at least two UEs ; and - transmitting the effective precoded channels to at least one subsequent second APU ; the method being characterized in that the radio stripe system have a tree structure, and wherein the first APU is connected to two subsequent second APUs located further away from the CPU , and wherein the effective precoded channels are transmitted to both subsequent second APUs , and wherein the precoding filter is generated by signal-to-interference-and-leakage ratio, SLNR, precoding method. - obtaining channel estimates for channels to the at least two UEs ; - determining a precoding filter based on the obtained channel estimates, wherein the precoding filter is going to be applied to signals that are to be transmitted from the first APU to the at least two UEs ; - determining effective precoded channels for the signals to the at least two UEs based on the determined precoding filter and the obtained channel estimates, wherein the effective precoded channels represent the effective channel created after the precoding filter being applied to each channel for the at least two UEs ; and - transmitting the effective precoded channels to at least one subsequent second APU ; the method being characterized in that the radio stripe system have a tree structure, and wherein the first APU is connected to two subsequent second APUs located further away from the CPU , and wherein the effective precoded channels are transmitted to both subsequent second APUs , and wherein the precoding filter is generated by signal-to-interference-and-leakage ratio, SLNR, precoding method.
Gripper system for gripping blocks of food (6, 6', 6", 6′′′) to be sliced, wherein the gripper system has at least two gripper devices , characterized in that at least one of the gripper devices has a length-compensation means (3, 3', 3", 3′′′), wherein the at least one of the gripper devices has a fixing unit (4, 4', 4", 4′′′), wherein the fixing unit (4, 4', 4", 4′′′) is designed in such a way that, with the aid of the fixing unit (4, 4', 4", 4′′′), the length-compensation means (3, 3', 3", 3′′′) is able to be fixed in place, wherein the gripper system has at least one means for evaluating the respective force acting on the respective length-compensation means (3, 3', 3", 3′′′), wherein a threshold value for the respective force is able to be defined, wherein the gripper devices are each designed in such a way that, if the threshold value is exceeded by the respective force, at least the respective block of food (6, 6', 6", 6′′′) is fixed in place with the aid of the gripper devices and the respective fixing unit (4, 4', 4", 4′′′) fixes the respective length-compensation means (3, 3', 3", 3′′′) of the respective gripper device in place.
A controlled oral release pharmaceutical dosage form comprising: a) a therapeutically effective amount of ranolazine free base; b) one or more lipid(s) as release controlling agent(s); and c) one or more pharmaceutically acceptable excipient(s). a) a therapeutically effective amount of ranolazine free base; b) one or more lipid(s) as release controlling agent(s); and c) one or more pharmaceutically acceptable excipient(s).
A drill rotatable about an axial line (X), the drill comprising: a flank face ; a thinning face contiguous to the flank face; an outer peripheral surface contiguous to the flank face; and a swarf discharging surface contiguous to each of the flank face and the outer peripheral surface, wherein a ridgeline between the flank face and the swarf discharging surface forms a cutting edge , the outer peripheral surface is provided with a first margin contiguous to each of the cutting edge and the flank face, and a second margin that is located on a rear side with respect to the first margin in a rotation direction and that is separated from each of the flank face and the thinning face, characterised in that the outer peripheral surface is also contiguous to the thinning face, an outer peripheral portion of the first margin and an outer peripheral portion of the second margin have respective back tapers having the same angle, and in a direction parallel to the axial line, a distance (A1) between a front end of the first margin and a front end of the second margin is more than or equal to 3 mm and less than or equal to 5 mm. a flank face ; a thinning face contiguous to the flank face; an outer peripheral surface contiguous to the flank face; and a swarf discharging surface contiguous to each of the flank face and the outer peripheral surface, wherein a ridgeline between the flank face and the swarf discharging surface forms a cutting edge , the outer peripheral surface is provided with a first margin contiguous to each of the cutting edge and the flank face, and a second margin that is located on a rear side with respect to the first margin in a rotation direction and that is separated from each of the flank face and the thinning face, characterised in that the outer peripheral surface is also contiguous to the thinning face, an outer peripheral portion of the first margin and an outer peripheral portion of the second margin have respective back tapers having the same angle, and in a direction parallel to the axial line, a distance (A1) between a front end of the first margin and a front end of the second margin is more than or equal to 3 mm and less than or equal to 5 mm.
A phased array light detection and ranging, LiDAR, transmitting chip of mixed materials, comprising: a first material structure layer in a second region and a silicon on insulator, SOI, silicon waveguide structure layer in a first region, above a top silicon layer of an SOI substrate, wherein an overlapping region of a rear end of the first material structure layer and a front end of the SOI silicon waveguide structure layer forms a coupling connection structure ; the first material structure layer is made of a first material and optically connected to the SOI silicon waveguide structure layer through the coupling connection structure ; the first material structure layer is configured to couple input light to the chip; the coupling connection structure is configured to split a light wave coupled into the chip, and couple each of split light waves into a corresponding silicon waveguide in the SOI silicon waveguide structure layer ; a non-linear refractive index of the first material in the first material structure layer is lower than a non-linear refractive index of a silicon material; and the first material is compatible with a complementary metal-oxide-semiconductor, CMOS, process. the first material structure layer is made of a first material and optically connected to the SOI silicon waveguide structure layer through the coupling connection structure ; the first material structure layer is configured to couple input light to the chip; the coupling connection structure is configured to split a light wave coupled into the chip, and couple each of split light waves into a corresponding silicon waveguide in the SOI silicon waveguide structure layer ; a non-linear refractive index of the first material in the first material structure layer is lower than a non-linear refractive index of a silicon material; and the first material is compatible with a complementary metal-oxide-semiconductor, CMOS, process.
A system comprising: a pipetting chamber ; a set of pipettor cartridges docked at a docking station in the pipetting chamber , wherein each pipettor cartridge in the set of pipettor cartridges includes a set of pipettes extending from a bottom side of the pipettor cartridge ; a gantry system mounted on a ceiling within the pipetting chamber , the gantry system including: at least one stationary track aligned in a first direction; and a movable track aligned in a second direction distinct from the first direction, the movable track coupled to the at least one stationary track ; and a carrier configured to transport each pipettor cartridge of the set of pipettor cartridges from the docking station to a pipetting location within the pipetting chamber , where the carrier is common to each pipettor cartridge docked at the docking station and is configured to move each pipettor cartridge held by the carrier in a third direction perpendicular to both the first and second directions. a pipetting chamber ; a set of pipettor cartridges docked at a docking station in the pipetting chamber , wherein each pipettor cartridge in the set of pipettor cartridges includes a set of pipettes extending from a bottom side of the pipettor cartridge ; a gantry system mounted on a ceiling within the pipetting chamber , the gantry system including: at least one stationary track aligned in a first direction; and a movable track aligned in a second direction distinct from the first direction, at least one stationary track aligned in a first direction; and a movable track aligned in a second direction distinct from the first direction, the movable track coupled to the at least one stationary track ; and a carrier configured to transport each pipettor cartridge of the set of pipettor cartridges from the docking station to a pipetting location within the pipetting chamber , where the carrier is common to each pipettor cartridge docked at the docking station and is configured to move each pipettor cartridge held by the carrier in a third direction perpendicular to both the first and second directions.
A waterproof housing for an electronic device; the housing comprising an assembly of a box-like case with an opened front in which case circuit components are mountable and a front cover attached to the case so as to cover the case, with the front cover fitted onto the periphery of the front opening of the case so as to prevent rainwater from entering from the outside, wherein the case has an arched top plate, at the front of the case , a fitting stage , to which the front cover is fitted, is formed so as to protrude from the case along the periphery of the front opening of the case , and the fitting stage has at least one drain groove provided along the peripheral surfaces of the top plate section and both of the right and left side wall sections of the fitting stage so that the lower ends of the drain groove are opened downward at the bottom of the case .
A process fluid temperature estimation system comprising: a sensor capsule having at least one temperature sensitive element disposed therein configured to sense an external surface of a process pipe , wherein the sensor capsule is urged into continuous contact with the external surface of the process pipe ; measurement circuitry coupled to the sensor capsule and configured to detect a characteristic of the at least one temperature sensitive element that varies with temperature and provide sensor capsule temperature information (T skin ); a controller coupled to the measurement circuitry , the controller being configured to obtain a reference temperature (T reference ) and employ a heat transfer calculation with the reference temperature (T reference ) and the sensor capsule temperature information (T skin ) to generate an estimated process temperature output (T corrected ); a mounting assembly configured to mount the process fluid temperature estimation system to the external surface of the process pipe , wherein the mounting assembly comprises a clamp body that is offset from the external surface of the process pipe ; and an insulation , wherein the insulation is located around the junction of the sensor capsule and the process pipe , a sensor capsule having at least one temperature sensitive element disposed therein configured to sense an external surface of a process pipe , wherein the sensor capsule is urged into continuous contact with the external surface of the process pipe ; measurement circuitry coupled to the sensor capsule and configured to detect a characteristic of the at least one temperature sensitive element that varies with temperature and provide sensor capsule temperature information (T skin ); a controller coupled to the measurement circuitry , the controller being configured to obtain a reference temperature (T reference ) and employ a heat transfer calculation with the reference temperature (T reference ) and the sensor capsule temperature information (T skin ) to generate an estimated process temperature output (T corrected ); a mounting assembly configured to mount the process fluid temperature estimation system to the external surface of the process pipe , wherein the mounting assembly comprises a clamp body that is offset from the external surface of the process pipe ; and an insulation , wherein the insulation is located around the junction of the sensor capsule and the process pipe ,
A process for preparing a coupled polymer by anionic polymerization wherein the coupled polymer is a conjugated diene polymer comprising the following reaction steps: a) polymerizing a monomer or a mixture of monomers comprising at least one conjugated diene optionally one or more monoalkenyl arene compounds in the presence of an anionic initiator to form a living polymer arm or mixture of arms (P), with an average apparent molecular weight greater than 2000, measured with gel permeation chromatography (GPC) using polystyrene calibration standards, in accordance with ASTM D5296 - 11; b) reacting the living polymer arm or arms with a polyalkenyl coupling agent; c) terminating the polymerization if any living polymers remain after step b); and d) optionally functionalizing and/or hydrogenating the coupled polymer so produced, wherein the polyalkenyl coupling agent is an alpha,omega-bis(vinylphenyl)alkane. a) polymerizing a monomer or a mixture of monomers comprising at least one conjugated diene optionally one or more monoalkenyl arene compounds in the presence of an anionic initiator to form a living polymer arm or mixture of arms (P), with an average apparent molecular weight greater than 2000, measured with gel permeation chromatography (GPC) using polystyrene calibration standards, in accordance with ASTM D5296 - 11; b) reacting the living polymer arm or arms with a polyalkenyl coupling agent; c) terminating the polymerization if any living polymers remain after step b); and d) optionally functionalizing and/or hydrogenating the coupled polymer so produced, wherein the polyalkenyl coupling agent is an alpha,omega-bis(vinylphenyl)alkane.
A material handling vehicle comprising, a device for lifting and carrying a load, at least a pair of vertical wheels , an underside , an upper side , an energy source , a travel motor , wherein the material handling vehicle is arranged such that it is able to travel in under a load, lift and transport the load , further the material handling vehicle comprises at least one first electromagnet on the underside of the vehicle , such that when the electromagnet is supplied with electric power it will be able to attach the material handling vehicle to a magnetic surface , wherein the electromagnet is movably attached in the material handling vehicle such that the electromagnet is able to move in vertical direction in relation to the underside of the vehicle , wherein the electromagnet is able to follow the magnetic surface as the surface moves in vertical direction in relation to the underside of the material handling vehicle , wherein the electromagnet is able to move to between a first and a second end position (I, II), wherein the first end position (I) is a retracted position and the second end position (II) is an extended position in relation to the underside of the vehicle , at which second end position (II) the distance of the lower most surface of the electromagnet to the underside of the vehicle has a predetermined distance value (X), wherein the material handling vehicle further comprises a sensor at the underside of the vehicle, which sensor is able to control the supply of electric power to the electromagnet based on a detected distance from the sensor to the surface positioned next to the underside , characterized in that the sensor is arranged to have a detection range (R) that is smaller than the predetermined value (X) of the distance of the lower most surface of the electromagnet to the underside of the vehicle .
A method of forming a footwear component comprising a microlattice structure , the method comprising: passing ultraviolet light into resin within a chamber along light paths to create a footwear component with portions of at least two different densities ; disassembling the footwear component in a partially cured state from the chamber; and post curing the footwear component into a final shape outside of the chamber; combining the microlattice structure with a second material ; wherein combining the microlattice structure with a second material comprises forming a transition between the microlattice structure and the second material; and overlapping the transition between the microlattice structure and the second material with a top layer and a bottom layer , wherein the resin is poured into the chamber and the ultraviolet light is then passed into the resin, wherein the ultraviolet light is passed through a mask , and wherein the light paths are defined by the mask. passing ultraviolet light into resin within a chamber along light paths to create a footwear component with portions of at least two different densities ; disassembling the footwear component in a partially cured state from the chamber; and post curing the footwear component into a final shape outside of the chamber; combining the microlattice structure with a second material ; wherein combining the microlattice structure with a second material comprises forming a transition between the microlattice structure and the second material; and overlapping the transition between the microlattice structure and the second material with a top layer and a bottom layer , wherein the resin is poured into the chamber and the ultraviolet light is then passed into the resin, wherein the ultraviolet light is passed through a mask , and wherein the light paths are defined by the mask.