mhurhangee/patent-ind-claim-en huggingface dataset:
A double-stranded ribonucleic acid (dsRNA) for inhibiting expression of an APOC3 gene, wherein the dsRNA comprises (a) a sense strand consisting of the nucleotide sequence GcuuAAAAGGGAcAGuAuudTsdT and an antisense strand consisting of a nucleotide sequence AAuACUGUCCCUUUuAAGCdTsdT, (b) a sense strand consisting of the nucleotide sequence GCUUAAAAGGGACAGUAUUdTsdT and an antisense strand consisting of a nucleotide sequence AAUACUGUCCCUUUUAAGCdTsdT, (c) a sense strand consisting of the nucleotide sequence GfcUfuAfaAfaGfgGfaCfaGfuAfuUfdTsdT and an antisense strand consisting of a nucleotide sequence aAfuAfcUfgUfcCfcUfuUfuAfaGfcdTsdT, or (d) a sense strand consisting of the nucleotide sequence GcuuAAAAGGGAcAGuAuudTsdT and an antisense strand consisting of a nucleotide sequence AAuACuGUCCCuuuuAagcdTsdT, wherein lower case nucleotides are 2'-O-methyl nucleotides; Gf, Af, Uf and Cf are 2'-fluoro nucleotides; and s is a phosphothioate linkage. (a) a sense strand consisting of the nucleotide sequence GcuuAAAAGGGAcAGuAuudTsdT and an antisense strand consisting of a nucleotide sequence AAuACUGUCCCUUUuAAGCdTsdT, (b) a sense strand consisting of the nucleotide sequence GCUUAAAAGGGACAGUAUUdTsdT and an antisense strand consisting of a nucleotide sequence AAUACUGUCCCUUUUAAGCdTsdT, (c) a sense strand consisting of the nucleotide sequence GfcUfuAfaAfaGfgGfaCfaGfuAfuUfdTsdT and an antisense strand consisting of a nucleotide sequence aAfuAfcUfgUfcCfcUfuUfuAfaGfcdTsdT, or (d) a sense strand consisting of the nucleotide sequence GcuuAAAAGGGAcAGuAuudTsdT and an antisense strand consisting of a nucleotide sequence AAuACuGUCCCuuuuAagcdTsdT, wherein lower case nucleotides are 2'-O-methyl nucleotides; Gf, Af, Uf and Cf are 2'-fluoro nucleotides; and s is a phosphothioate linkage.
A device for automatically releasing cremated ashes, comprising: a chamber for containing cremated ashes; and a release mechanism configured to selectively release cremated ashes contained in the chamber to the external environment, characterised in the release mechanism comprising an annular outer member , and an inner member at least partially radially inward of the outer member , the outer member comprising an outlet from the chamber , wherein the release mechanism is configured to translate the inner member and the outer member relative to each other along a common longitudinal axis (A) from a first relative position, in which release of cremated ashes in the chamber through the outlet is inhibited, to a second relative position, in which release of cremated ashes in the chamber through the outlet is enabled, wherein, in the first relative position, the inner member is in contact with the outer member so as to cover the outlet , and wherein, in the second relative position, the inner member is spaced from the outer member , wherein the inner member comprises an annular sloping surface arranged to contact the outer member in the first relative position. a chamber for containing cremated ashes; and a release mechanism configured to selectively release cremated ashes contained in the chamber to the external environment, characterised in the release mechanism comprising an annular outer member , and an inner member at least partially radially inward of the outer member , the outer member comprising an outlet from the chamber , wherein the release mechanism is configured to translate the inner member and the outer member relative to each other along a common longitudinal axis (A) from a first relative position, in which release of cremated ashes in the chamber through the outlet is inhibited, to a second relative position, in which release of cremated ashes in the chamber through the outlet is enabled, wherein, in the first relative position, the inner member is in contact with the outer member so as to cover the outlet , and wherein, in the second relative position, the inner member is spaced from the outer member , wherein the inner member comprises an annular sloping surface arranged to contact the outer member in the first relative position.
A method for controlling flight of an unmanned aerial vehicle , comprising: (a) sending commands from a mission control module onboard the unmanned aerial vehicle to a flight management system onboard the unmanned aerial vehicle for guiding the unmanned aerial vehicle to perform a mission; (b) monitoring validity of the commands sent from the mission control module to the flight management system to determine when a trigger condition is present based on whether the commands sent from the mission control module to the flight management system are valid or invalid comprising monitoring whether a value of a parameter included in the command issued by the mission control module violates a constraint or not; and wherein the monitored parameter is one of the following group: a heart-beat rate of commands output from the mission control module, a rate of turn, a rate of climb, a rate of descent, a roll rate, a pitch rate, and a yaw rate; and (c) guiding the unmanned aerial vehicle in accordance with the validated commands sent from the mission control module to the flight management system . (a) sending commands from a mission control module onboard the unmanned aerial vehicle to a flight management system onboard the unmanned aerial vehicle for guiding the unmanned aerial vehicle to perform a mission; (b) monitoring validity of the commands sent from the mission control module to the flight management system to determine when a trigger condition is present based on whether the commands sent from the mission control module to the flight management system are valid or invalid comprising monitoring whether a value of a parameter included in the command issued by the mission control module violates a constraint or not; and wherein the monitored parameter is one of the following group: a heart-beat rate of commands output from the mission control module, a rate of turn, a rate of climb, a rate of descent, a roll rate, a pitch rate, and a yaw rate; and (c) guiding the unmanned aerial vehicle in accordance with the validated commands sent from the mission control module to the flight management system .
A spacer clip (100;200;300;400;500) for ensuring a minimum adhesive bond line thickness ( T ) during an attachment event for attaching a first vehicle part with a second vehicle part with an adhesive , the spacer clip comprises: - a spacer element having a thickness ( t ) defining the minimum bond line thickness, the spacer element is adapted to be arranged interleaved between the first vehicle part and the second vehicle part when attaching the first vehicle part with the second vehicle part, characterized in that the spacer element has a uniform thickness ( t ) corresponding to the minimum bond line thickness, - a hold portion generally parallel with the spacer element, the hold portion is attached to the spacer element with an interconnecting portion , wherein the spacer clip is mountable on the first vehicle part, wherein the hold portion is adapted to be arranged on an opposite side of the first vehicle part compared to the spacer element during the attachment event, wherein, - the spacer element and the hold portion are adapted to maintain a pressure on the first vehicle part such that the spacer clip can be mounted on the first vehicle part prior to the attachment event and maintain mounted on the vehicle part during the attachment event. - a spacer element having a thickness ( t ) defining the minimum bond line thickness, the spacer element is adapted to be arranged interleaved between the first vehicle part and the second vehicle part when attaching the first vehicle part with the second vehicle part, characterized in that the spacer element has a uniform thickness ( t ) corresponding to the minimum bond line thickness, - a hold portion generally parallel with the spacer element, the hold portion is attached to the spacer element with an interconnecting portion , wherein the spacer clip is mountable on the first vehicle part, wherein the hold portion is adapted to be arranged on an opposite side of the first vehicle part compared to the spacer element during the attachment event, wherein, - the spacer element and the hold portion are adapted to maintain a pressure on the first vehicle part such that the spacer clip can be mounted on the first vehicle part prior to the attachment event and maintain mounted on the vehicle part during the attachment event.
An adjustable caster wheel assembly , comprising: a lower housing ; an upper housing , the upper housing including a threaded portion ; and an alignment post disposed within the upper housing and coupled to the lower housing , the alignment post including a threaded portion configured and dimensioned for engagement with the threaded portion of the upper housing such that rotation of the alignment post in a first direction causes separation of the upper housing and the lower housing to increase a height of the caster wheel assembly and rotation of the alignment post in a second direction causes approximation of the upper housing and the lower housing to decrease a height of the caster wheel assembly , characterised in that the upper housing is partly disposed in the lower housing . a lower housing ; an upper housing , the upper housing including a threaded portion ; and an alignment post disposed within the upper housing and coupled to the lower housing , the alignment post including a threaded portion configured and dimensioned for engagement with the threaded portion of the upper housing such that rotation of the alignment post in a first direction causes separation of the upper housing and the lower housing to increase a height of the caster wheel assembly and rotation of the alignment post in a second direction causes approximation of the upper housing and the lower housing to decrease a height of the caster wheel assembly , characterised in that the upper housing is partly disposed in the lower housing .
Structural bearing for protecting structures against shocks, having a first damping device and a second damping device , wherein the first damping device is designed for vibration isolation of shocks of a first type and the second damping device is designed for vibration isolation of shocks of a second type, wherein the shocks of the first type differ significantly from the shocks of the second type, wherein the first damping device is an earthquake isolator and the second damping device is a structure-borne sound isolator, characterized in that the second damping device is arranged in a component of the first damping device . a first damping device and a second damping device , wherein the first damping device is designed for vibration isolation of shocks of a first type and the second damping device is designed for vibration isolation of shocks of a second type, wherein the shocks of the first type differ significantly from the shocks of the second type, wherein the first damping device is an earthquake isolator and the second damping device is a structure-borne sound isolator, characterized in that the second damping device is arranged in a component of the first damping device .
A method for discontinuous reception, comprising: receiving , by a terminal , switch indication information sent by a network device and used to instruct the terminal to switch from a first discontinuous reception DRX pattern being used to a second DRX pattern, wherein each of the first DRX pattern and the second DRX pattern indicates a duration of a DRX sleeping period and a duration of a DRX active period; and switching , by the terminal , between the DRX sleeping period and the DRX active period with the second DRX pattern based on the switch indication information, characterized in that the duration of the DRX sleeping period and/or the duration of the DRX active period are determined based on at least one of the following: service quality or a service attribute corresponding to downlink data to be transmitted; time required for encoding uplink and/or downlink data; or time required for decoding uplink and/or downlink data. receiving , by a terminal , switch indication information sent by a network device and used to instruct the terminal to switch from a first discontinuous reception DRX pattern being used to a second DRX pattern, wherein each of the first DRX pattern and the second DRX pattern indicates a duration of a DRX sleeping period and a duration of a DRX active period; and switching , by the terminal , between the DRX sleeping period and the DRX active period with the second DRX pattern based on the switch indication information, characterized in that the duration of the DRX sleeping period and/or the duration of the DRX active period are determined based on at least one of the following: service quality or a service attribute corresponding to downlink data to be transmitted; time required for encoding uplink and/or downlink data; or time required for decoding uplink and/or downlink data. service quality or a service attribute corresponding to downlink data to be transmitted; time required for encoding uplink and/or downlink data; or time required for decoding uplink and/or downlink data.
Handling device (10a; 10b; 10c) for handling products, comprising at least one handling unit (52a; 52b; 52c) which has at least one handling element (12a; 12b; 12c) and at least one holding element (14a; 14b; 14c) which is mounted so as to be movable relative to the handling element (12a; 12b; 12c), the handling unit (52a; 52b; 52c) having an orientation unit (16a; 16b; 16c), by means of which an angular orientation between the handling element (12a; 12b; 12c) and the holding element (14a; 14b; 14c) can be adjusted, the orientation unit (16a; 16b; 16c) having at least one adjustment element (18a; 18b; 18c), the angular orientation between the handling element (12a; 12b; 12c) and the holding element (14a; 14b; 14c) being adjustable by a movement of the adjustment element (18a; 18b; 18c) relative to the handling element (12a; 12b; 12c), and comprising a drive unit (20a; 20b; 20c) designed as a planar drive for driving the adjustment element (18a; 18b; 18c), characterized in that the orientation unit (16a; 16b; 16c) has at least one torque transmission element (26a; 26b; 26c) which is connected to the adjustment element (18a; 18b; 18c) for conjoint rotation, the torque transmission element (26a; 26b; 26c) being designed as a cardan shaft or as a flexible, in particular elastically bendable, shaft.
A conveyance machine configured to convey a load, the conveyance machine comprising: a traveling unit ; a vehicle body arranged above the traveling unit ; a vessel provided on the vehicle body and configured to move in a width direction (X) of the conveyance machine ; characterized by the conveyance machine comprising: a range sensor configured to output physical geometric data of a space in a mine tunnel (R); wherein the range sensor includes at least one of a laser scanner and a 3-dimensional range sensor wherein the range sensor is configured to obtain 3-dimensional spatial data; and a processing unit configured to control the traveling unit so that the vessel can approach a loading machine operable to load a load on the vessel , and adjust a position of the vessel relative to the vehicle body in the width direction (X) of the conveyance machine so as to position at least part of the vessel on an outer side of the vehicle body where the loading machine performs loading based on the output data of the range sensor . a traveling unit ; a vehicle body arranged above the traveling unit ; a vessel provided on the vehicle body and configured to move in a width direction (X) of the conveyance machine ; characterized by the conveyance machine comprising: a range sensor configured to output physical geometric data of a space in a mine tunnel (R); wherein the range sensor includes at least one of a laser scanner and a 3-dimensional range sensor wherein the range sensor is configured to obtain 3-dimensional spatial data; and a processing unit configured to control the traveling unit so that the vessel can approach a loading machine operable to load a load on the vessel , and adjust a position of the vessel relative to the vehicle body in the width direction (X) of the conveyance machine so as to position at least part of the vessel on an outer side of the vehicle body where the loading machine performs loading based on the output data of the range sensor . a range sensor configured to output physical geometric data of a space in a mine tunnel (R); wherein the range sensor includes at least one of a laser scanner and a 3-dimensional range sensor wherein the range sensor is configured to obtain 3-dimensional spatial data; and a processing unit configured to control the traveling unit so that the vessel can approach a loading machine operable to load a load on the vessel , and adjust a position of the vessel relative to the vehicle body in the width direction (X) of the conveyance machine so as to position at least part of the vessel on an outer side of the vehicle body where the loading machine performs loading based on the output data of the range sensor .
A method for testing the eyes of a test person with the aid of a vision testing system , comprising a first measuring device , a second topographic measuring device , a third refractive measuring device and a processing means , a central axial length (L Z ) and a peripheral axial length (L P ) of an eye of the test person being measured with the aid of said first measuring device, a curvature of the cornea of the eye being measured with the aid of said second measuring device, a refractive property of the eye being measured with the aid of said third measuring device, measurement data of the measurements of the first, second and third measuring device being processed with the aid of said processing means, said processing means outputting the measurement data, said vision testing system presenting a fixation means , characterised in that the eye is focused in relation to the vision testing system by means of the fixation means either for measuring the central axial length (L Z ) or the peripheral axial length (L P ), a peripheral fixation mark of the fixation means being displayed and focused on by the eye in such a manner that a visual axis of the eye differs from a measurement axis of the first measuring device.
A trailer mode estimation method which allows for determining, from a load amount of the rear suspension of a tow truck (C), whether a trailer (D) is in detachment or unloading mode in heavy commercial vehicles with an air suspension (S) in the rear axle used as tow trucks, said method comprising the process steps of: - measuring a load value of the air suspension (S) , - determining the decreasing tendency of the load value of the air suspension (S) , and - lowering the height of the air suspension (S) , 2. and characterized by the process steps of: - re-measuring the load value of the air suspension (S) , - determining that the trailer (D) unloading mode is present if the load value of the air suspension (S) is maintained, and performing no operation in this mode , - determining that the trailer (D) detachment mode is present if the load value of the air suspension (S) tends to decrease , and - lowering the air suspension (S) down to the defined height value . - measuring a load value of the air suspension (S) , - determining the decreasing tendency of the load value of the air suspension (S) , and - lowering the height of the air suspension (S) , 2. and - re-measuring the load value of the air suspension (S) , - determining that the trailer (D) unloading mode is present if the load value of the air suspension (S) is maintained, and performing no operation in this mode , - determining that the trailer (D) detachment mode is present if the load value of the air suspension (S) tends to decrease , and - lowering the air suspension (S) down to the defined height value .
Device for comminuting foodstuffs, having a base part which has a receptacle which can receive at least two cutting parts on top of one another, and having an activation part which has a press ram by means of which a product to be comminuted is capable of being advanced along an advancing direction through the cutting parts that are inserted into the receptacle , wherein the two cutting parts are disposable at different mutual relative rotary alignments in the receptacle , characterized in that the activation part is connected to the base part in an articulated manner and is pivotable towards the base part so as to, by means of the press ram that carries out a pivoting movement, advance a product to be comminuted along the advancing direction through the cutting parts that are inserted into the receptacle , wherein the cutting parts that are stacked on top of one another in the receptacle , independently of the selected rotary alignment, are fixed in terms of the mutual relative alignment thereof in a plane perpendicular to the advancing direction in that one of the cutting parts stacked on top of one another in the receptacle has a coupling means which is operatively connected to a counter-coupling means of the other cutting part .
A polycarbonate composition, comprising following components in parts by weight: a. 50-70 parts of a polycarbonate; b. 8-30 parts of a terpolymer; c. 5-18 parts of a phosphate ester fire retardant; d. 0.1-1 parts of a phosphorus-containing prepolymer; and e. 0.1-4 parts of a fluorine-containing prepolymer; wherein a sum of the parts by weight of the five components a, b, c, d and e is 100, and wherein the phosphorus-containing prepolymer is selected from a polymer of an aryl phosphate monomer with a molecular weight of 200 Dalton to 1000 Dalton and containing a (GO) 3P=O structure, wherein the aryl phosphate is selected from one or more of a bisphenol A-bis(diphenyl phosphate) dimer and a bisphenol A-bis(diphenyl phosphate) trimer. a. 50-70 parts of a polycarbonate; b. 8-30 parts of a terpolymer; c. 5-18 parts of a phosphate ester fire retardant; d. 0.1-1 parts of a phosphorus-containing prepolymer; and e. 0.1-4 parts of a fluorine-containing prepolymer;
A method for preparing a biomaterial comprising type I collagen, probiotics, and exopolysaccharide wherein the method comprises: i. contacting a population of probiotic bacteria with collagen monomers, ii. incubating the mixture obtained in step i) under conditions adequate for the self-assembly of the collagen monomers into collagen fibers, thereby obtaining collagen fibers containing entrapped probiotic bacteria; and iii. maintaining the collagen fibers containing entrapped probiotic bacteria obtained in step ii) under conditions adequate for the formation of exopolysaccharide (EPS) by the probiotics until the content of EPS in the biomaterial with respect to the collagen content of the biomaterial measured as the sugar content is of at least 2% (w/w). i. contacting a population of probiotic bacteria with collagen monomers, ii. incubating the mixture obtained in step i) under conditions adequate for the self-assembly of the collagen monomers into collagen fibers, thereby obtaining collagen fibers containing entrapped probiotic bacteria; and iii. maintaining the collagen fibers containing entrapped probiotic bacteria obtained in step ii) under conditions adequate for the formation of exopolysaccharide (EPS) by the probiotics until the content of EPS in the biomaterial with respect to the collagen content of the biomaterial measured as the sugar content is of at least 2% (w/w).