mhurhangee/patent-ind-claim-en huggingface dataset:
An agricultural applicator machine having a frame and at least one horizontally-extending boom assembly supporting a plurality of product-dispensing nozzles spaced along the boom assembly operable to distribute an agricultural product over a field as the agricultural applicator machine moves in a forward in direction in the field, the boom assembly configured to pivot between an extended, operative position and a folded, inoperative position, and when in the folded, inoperative position, the boom assembly secured in a boom cradle mechanism ; the boom cradle mechanism comprising: a crossmember that extends generally perpendicular to a forward direction of travel of the agricultural applicator machine ; a first boom rest at an outer end of the crossmember , the boom res comprising a rigid inboard boom stop and a rigid outboard boom stop and a saddle portion between the inboard and outboard boom stops , wherein the inboard boom stop extends from the saddle portion in an out of phase configuration relative the outboard boom stop; characterized in that a locking assembly comprising an actuator assembly configured to rotate the crossmember , and thus the cradle boom rest , the actuator assembly connecting to the crossmember through a linkage assembly , the actuator assembly causing the crossmember to rotate causing the boom rest to move between an open position and a locked position, the open position allowing movement of a boom assembly with the outboard boom stop rotated down out of the way and the inboard boom stop in position to catch the boom assembly as the boom assembly folds in, and when in the locked position, both the inboard and outboard stops are in position to stop motion of the supported boom assembly. assembly . a crossmember that extends generally perpendicular to a forward direction of travel of the agricultural applicator machine ; a first boom rest at an outer end of the crossmember , the boom res comprising a rigid inboard boom stop and a rigid outboard boom stop and a saddle portion between the inboard and outboard boom stops , wherein the inboard boom stop extends from the saddle portion in an out of phase configuration relative the outboard boom stop; characterized in that a locking assembly comprising an actuator assembly configured to rotate the crossmember , and thus the cradle boom rest , the actuator assembly connecting to the crossmember through a linkage assembly , the actuator assembly causing the crossmember to rotate causing the boom rest to move between an open position and a locked position, the open position allowing movement of a boom assembly with the outboard boom stop rotated down out of the way and the inboard boom stop in position to catch the boom assembly as the boom assembly folds in, and when in the locked position, both the inboard and outboard stops are in position to stop motion of the supported boom assembly. assembly .
A method for controlling laser beam propagation in quantum processing, comprising: generating, by a first acousto-optic modulator, AOM, from an incident laser beam , a first diffracted laser beam based on a first radio frequency, RF, tone and a second diffracted laser beam based on a second RF tone, wherein the first diffracted laser beam and the second diffracted laser beam are diffracted at different angles; focusing, via an optical component , the first diffracted laser beam and the second diffracted laser beam onto a second AOM ; generating, by the second AOM from the first diffracted laser beam and the second diffracted laser beam, at least a third diffracted laser beam based on the first RF tone and a third RF tone and a fourth diffracted laser beam based on the second RF tone and a fourth RF tone, wherein the third diffracted laser beam and the fourth diffracted laser beam are diffracted to be substantially parallel when incident on a respective ion in a chain of ions in a trap; and controlling quantum information in the ion to perform quantum processing based on the third diffracted laser beam and the fourth diffracted laser beam. generating, by a first acousto-optic modulator, AOM, from an incident laser beam , a first diffracted laser beam based on a first radio frequency, RF, tone and a second diffracted laser beam based on a second RF tone, wherein the first diffracted laser beam and the second diffracted laser beam are diffracted at different angles; focusing, via an optical component , the first diffracted laser beam and the second diffracted laser beam onto a second AOM ; generating, by the second AOM from the first diffracted laser beam and the second diffracted laser beam, at least a third diffracted laser beam based on the first RF tone and a third RF tone and a fourth diffracted laser beam based on the second RF tone and a fourth RF tone, wherein the third diffracted laser beam and the fourth diffracted laser beam are diffracted to be substantially parallel when incident on a respective ion in a chain of ions in a trap; and controlling quantum information in the ion to perform quantum processing based on the third diffracted laser beam and the fourth diffracted laser beam.
A method for identifying a smart device , comprising: determining a first data randomness degree of inter-packet difference data in a network data packet, characterized in that the data packet is sent by a smart device to be identified (step 201, 301); and determining an identity of the smart device to be identified based on a comparison result between the first data randomness degree and a second data randomness degree, wherein the second data randomness degree is a data randomness degree of inter-packet difference data in a network data packet sent by an identified smart device (step 202, 302), the data randomness degree indicates an randomness degree of generating the inter-packet difference data. determining a first data randomness degree of inter-packet difference data in a network data packet, characterized in that the data packet is sent by a smart device to be identified (step 201, 301); and determining an identity of the smart device to be identified based on a comparison result between the first data randomness degree and a second data randomness degree, wherein the second data randomness degree is a data randomness degree of inter-packet difference data in a network data packet sent by an identified smart device (step 202, 302), the data randomness degree indicates an randomness degree of generating the inter-packet difference data.
Method for coordinating an exchange of power between a plurality of technical small units on the one hand and a transmission network on the other hand, wherein a central control device operates an energy data cloud , in which the control device aggregates power data of the small units and on the basis thereof, for each small unit the control device in each case: - records an individual schedule for an available electrical power on the small unit , - determines at least one time interval , within which the exchange of power is allowed to be initiated on the small unit by the central control device in accordance with predetermined access data , - on the basis of a predetermined call-off plan of a network operator of the transmission grid or an electricity exchange , determines a reference value (V) of the available power in the respective time interval in accordance with the individual schedule , and, - if the reference value (V) satisfies a predetermined optimization criterion , selects the small unit for an exchange of power with the transmission grid in the respective time interval , wherein for each identified time interval , from the individual schedules of all small units selected for the respective time interval , the central control device forms an overall schedule and selects the power exchange of the small units with the transmission grid in accordance with the overall schedule , and characterized in that by means of the control device , from a balancing of the overall schedule and the call-off plan of the network operator or electricity exchange , a delta schedule is calculated and a central store connected to the transmission grid is activated in accordance with the delta schedule , so that the central store exchanges an electrical compensation power with the transmission grid , so that the technical small units and the central store together fulfil the call-off plan . - records an individual schedule for an available electrical power on the small unit , - determines at least one time interval , within which the exchange of power is allowed to be initiated on the small unit by the central control device in accordance with predetermined access data , - on the basis of a predetermined call-off plan of a network operator of the transmission grid or an electricity exchange , determines a reference value (V) of the available power in the respective time interval in accordance with the individual schedule , and, - if the reference value (V) satisfies a predetermined optimization criterion , selects the small unit for an exchange of power with the transmission grid in the respective time interval ,
A liposome comprising: a) a bilayer, wherein the bilayer comprises: i) phospholipid, and ii) porphyrin having cobalt coordinated thereto forming cobalt-porphyrin, wherein the cobalt porphyrin is conjugated to a phospholipid to form a cobalt porphyrin-phospholipid conjugate; and b) a polyhistidine-tagged presentation molecule, wherein at least a portion of the polyhistidine tag resides in the hydrophobic portion of the bilayer and one or more histidines of the polyhistidine tag are non-covalently coordinated to the cobalt in the cobalt-porphyrin, wherein the polyhistidine-tagged presentation molecule is presented on the surface of the bilayer and thus exposed to the outside of the liposome, and wherein the liposome encloses an aqueous compartment. a) a bilayer, wherein the bilayer comprises: i) phospholipid, and ii) porphyrin having cobalt coordinated thereto forming cobalt-porphyrin, wherein the cobalt porphyrin is conjugated to a phospholipid to form a cobalt porphyrin-phospholipid conjugate; and i) phospholipid, and ii) porphyrin having cobalt coordinated thereto forming cobalt-porphyrin, wherein the cobalt porphyrin is conjugated to a phospholipid to form a cobalt porphyrin-phospholipid conjugate; and b) a polyhistidine-tagged presentation molecule, wherein at least a portion of the polyhistidine tag resides in the hydrophobic portion of the bilayer and one or more histidines of the polyhistidine tag are non-covalently coordinated to the cobalt in the cobalt-porphyrin,
A battery pack configured to comprise a first and a second heating components for applying heat to a plurality of cylindrical cells , the battery pack comprising: an upper end cover provided above the plurality of cylindrical cells to protect the inside the battery pack; a first metal panel positioned below the upper end cover and jointed to the upper portion of the cylindrical cells; the first heating component attached between the first metal panel and the upper end cover; a second metal panel jointed to a lower portion of the cylindrical cells; a holder configured to surround and fix an outer side surface of the entire cylindrical cells and the lower portion of the second metal panel; and a lower end cover positioned below the second metal panel and the holder to form a lower end portion of the battery pack, the second heating component attached between the second metal panel and the lower low end cover, wherein the first metal panel and the second metal panel are welded to the cylindrical cells and are electrically connected to the heating component and the second heating component and to a BMS, wherein the BMS is configured to measure the internal temperature of the battery pack and control the first heating component and the second heating component. an upper end cover provided above the plurality of cylindrical cells to protect the inside the battery pack; a first metal panel positioned below the upper end cover and jointed to the upper portion of the cylindrical cells; the first heating component attached between the first metal panel and the upper end cover; a second metal panel jointed to a lower portion of the cylindrical cells; a holder configured to surround and fix an outer side surface of the entire cylindrical cells and the lower portion of the second metal panel; and a lower end cover positioned below the second metal panel and the holder to form a lower end portion of the battery pack, the second heating component attached between the second metal panel and the lower low end cover, wherein the first metal panel and the second metal panel are welded to the cylindrical cells and are electrically connected to the heating component and the second heating component and to a BMS, wherein the BMS is configured to measure the internal temperature of the battery pack and control the first heating component and the second heating component.
A digital dispense system for preparing and analyzing a plurality of samples, comprising: two or more fluid droplet ejection devices (14A-14C), each fluid droplet ejection device containing a fluid droplet ejection cartridge containing at least one fluid to be dispensed and a translation mechanism, the fluid droplet ejection cartridge being attached to said translation mechanism for moving the fluid droplet ejection cartridge back and forth over a sample holder in an x direction, and a sample tray translation mechanism for moving a sample tray along a production path in a y direction orthogonal to the x direction through the each of the two or more fluid droplet ejection devices, wherein the sample tray translation mechanism comprises at least one track edge containing triangular teeth for intermeshing with a gear of a stepping motor . two or more fluid droplet ejection devices (14A-14C), each fluid droplet ejection device containing a fluid droplet ejection cartridge containing at least one fluid to be dispensed and a translation mechanism, the fluid droplet ejection cartridge being attached to said translation mechanism for moving the fluid droplet ejection cartridge back and forth over a sample holder in an x direction, and a sample tray translation mechanism for moving a sample tray along a production path in a y direction orthogonal to the x direction through the each of the two or more fluid droplet ejection devices, wherein the sample tray translation mechanism comprises at least one track edge containing triangular teeth for intermeshing with a gear of a stepping motor .
A method for estimating a relative angle (θ) between a heading (X 10 ) of a person and a heading (X 12 ) of a mobile device carried by the person, wherein the heading of the person is the person's course when the person is walking or running, which method comprises: determining a first estimate of the relative angle using a multi-axis accelerometer of the mobile device, wherein the multi-axis accelerometer is a three-axis accelerometer; determining a second estimate of the relative angle using a multi-axis gyroscope of the mobile device, wherein the multi-axis gyroscope is a three-axis gyroscope; and combining the first estimate and the second estimate to a combined estimate of the relative angle (θ) between the person's heading and the mobile device's heading. determining a first estimate of the relative angle using a multi-axis accelerometer of the mobile device, wherein the multi-axis accelerometer is a three-axis accelerometer; determining a second estimate of the relative angle using a multi-axis gyroscope of the mobile device, wherein the multi-axis gyroscope is a three-axis gyroscope; and combining the first estimate and the second estimate to a combined estimate of the relative angle (θ) between the person's heading and the mobile device's heading.
Agglomeration system for continuously producing soluble agglomerated food powder comprising plant-based powder, said system comprises - an air-drying system , - a pre-wetting unit comprising a powder inlet and a powder outlet , a continuous mixer and a first steam nozzle for injecting steam into the continuous mixer , - a connection element connecting the powder outlet to an inlet , - a fluidization unit comprising the inlet and an outlet , and conveying means for receiving powder from the pre-wetting unit powder outlet via the connection element , - a second steam nozzle comprising a powder inlet for receiving the pre-wetted powder, a steam injection orifice arranged for spraying steam onto the pre-wetted powder at a powder outlet , and - a binder nozzle arranged below the second steam nozzle , and comprising a supply pipe adapted to spray liquid binder with compressed air into the powder at the powder outlet of the second steam nozzle and injecting agglomerated powder from outlet into the air-drying system . - an air-drying system , - a pre-wetting unit comprising a powder inlet and a powder outlet , a continuous mixer and a first steam nozzle for injecting steam into the continuous mixer , a powder inlet and a powder outlet , a continuous mixer and a first steam nozzle for injecting steam into the continuous mixer , - a connection element connecting the powder outlet to an inlet , - a fluidization unit comprising the inlet and an outlet , and conveying means for receiving powder from the pre-wetting unit powder outlet via the connection element , the inlet and an outlet , and conveying means for receiving powder from the pre-wetting unit powder outlet via the connection element , - a second steam nozzle comprising a powder inlet for receiving the pre-wetted powder, a steam injection orifice arranged for spraying steam onto the pre-wetted powder at a powder outlet , and a powder inlet for receiving the pre-wetted powder, a steam injection orifice arranged for spraying steam onto the pre-wetted powder at a powder outlet , and - a binder nozzle arranged below the second steam nozzle , and comprising a supply pipe adapted to spray liquid binder with compressed air into the powder at the powder outlet of the second steam nozzle and injecting agglomerated powder from outlet into the air-drying system .
A method for separating pipe sections, comprising the following steps: providing a pipe blank with at least one cut-off slot arranged in a predetermined cut-to-length position (A) and extending in the circumferential direction of the pipe blank , the cut-off slot having an opening angle (β 1 ) < 180°, insertion of a broadening cutting die transversely to the longitudinal extent of the tube blank into the cut-off slot , the cutting die having a wedge angle (α 1 ) which, at least in the region of the initial spreading of the cut-off slot by the cutting die , is smaller than the opening angle (β 1 ) of the cut-off slot , and cutting in the remaining material (M V ) in extension of the cut-off slot by means of the cutting die which moves in further transversely to the longitudinal extent of the tube blank , characterized in that the transverse edges of the cut-off slot each have a projecting centering lug which brings about an expanding contact which increases as the cutting die is retracted. providing a pipe blank with at least one cut-off slot arranged in a predetermined cut-to-length position (A) and extending in the circumferential direction of the pipe blank , the cut-off slot having an opening angle (β 1 ) < 180°, insertion of a broadening cutting die transversely to the longitudinal extent of the tube blank into the cut-off slot , the cutting die having a wedge angle (α 1 ) which, at least in the region of the initial spreading of the cut-off slot by the cutting die , is smaller than the opening angle (β 1 ) of the cut-off slot , and cutting in the remaining material (M V ) in extension of the cut-off slot by means of the cutting die which moves in further transversely to the longitudinal extent of the tube blank , characterized in that the transverse edges of the cut-off slot each have a projecting centering lug which brings about an expanding contact which increases as the cutting die is retracted.
A multi-wavelength laser module comprising a base plate, a plurality of individual laser sources mounted on said base plate, at least one of said individual laser sources including a respective telescope , wherein the or each telescope is arranged in the radiation beam path of a corresponding one of said laser sources and comprising a first lens and a second lens , wherein said second lens is arranged at a distance from said first lens along said radiation beam path, wherein said at least one of said individual laser sources further includes a respective beam angle correction plate (7, 7', 7") arranged between said first lens and said second lens at a fixed angle in relation to said radiation beam path, said beam angle correction plate (7, 7', 7") being configured to introduce a parallel shift of the radiation beam between the first and second lens of the telescope, resulting in a shift in pointing direction for the beam from the corresponding one of said laser sources after passage of the telescope.
A double-jet type film cooling structure comprising: one or more pairs of injection holes which are provided on a wall surface facing a high-temperature gas passage and inject a cooling medium (C) to the passage ; a single supply passage provided inside a wall to supply the cooling medium (C) to the each pair of injection holes ; and a separating section provided between the injection holes forming the each pair in a location forward relative to rear ends of the injection holes to separate the cooling medium (C) supplied from the supply passage into components flowing to the injection holes forming the each pair, respectively; wherein an injection direction (A, B) of the cooling medium (C) is set to be inclined with respect to a flow direction of the high-temperature gas (G) so that the components of the cooling medium (C) injected from the injection holes forming the each pair form swirl flows (S1, S2) oriented in directions to push the components of the cooling medium (C) against the wall surface ; the separating section is positioned on a direction in which the cooling medium (C) travels and is formed as a flat surface against which a part of the cooling medium (C) collides and which has no bent portion; characterized in that the injection holes forming the each pair are circular holes opened on the wall surface from an oblique direction and are opened in a substantially oval shape on the wall surface . one or more pairs of injection holes which are provided on a wall surface facing a high-temperature gas passage and inject a cooling medium (C) to the passage ; a single supply passage provided inside a wall to supply the cooling medium (C) to the each pair of injection holes ; and a separating section provided between the injection holes forming the each pair in a location forward relative to rear ends of the injection holes to separate the cooling medium (C) supplied from the supply passage into components flowing to the injection holes forming the each pair, respectively; wherein an injection direction (A, B) of the cooling medium (C) is set to be inclined with respect to a flow direction of the high-temperature gas (G) so that the components of the cooling medium (C) injected from the injection holes forming the each pair form swirl flows (S1, S2) oriented in directions to push the components of the cooling medium (C) against the wall surface ; the separating section is positioned on a direction in which the cooling medium (C) travels and is formed as a flat surface against which a part of the cooling medium (C) collides and which has no bent portion; characterized in that the injection holes forming the each pair are circular holes opened on the wall surface from an oblique direction and are opened in a substantially oval shape on the wall surface .