mhurhangee/patent-ind-claim-en huggingface dataset:
An electric lift platform retractable upon hitting an obstruction, comprising: a lifting column , a platform , a transverse beam , a controller , and a manipulator , wherein the controller comprises a main control unit, MCU , and a motor driver circuit , an output end of the MCU being connected to the motor driver circuit, wherein the electric lift platform further comprises a multi-axis sensor module for acquiring platform obstruction-hitting data, the multi-axis sensor module being connected to an input end of the MCU such that the MCU , after having processed the obstruction-hitting data, transmits a control signal to the motor driver circuit , and the latter controls the lifting column to execute a corresponding retract action, the multi-axis sensor module including a central processing unit , characterized in that the multi-axis sensor module further includes a six-axis sensor module , the six-axis sensor module being electrically connected with the central processing unit , the central processing unit being connected to the input end of the MCU , and wherein the six-axis sensor module includes a three-axis accelerometer configured for acquiring three-axis acceleration data and a three-axis gyroscope configured for acquiring three-axis angular velocity data. a lifting column , a platform , a transverse beam , a controller , and a manipulator , wherein the controller comprises a main control unit, MCU , and a motor driver circuit , an output end of the MCU being connected to the motor driver circuit, wherein the electric lift platform further comprises a multi-axis sensor module for acquiring platform obstruction-hitting data, the multi-axis sensor module being connected to an input end of the MCU such that the MCU , after having processed the obstruction-hitting data, transmits a control signal to the motor driver circuit , and the latter controls the lifting column to execute a corresponding retract action, the multi-axis sensor module including a central processing unit , characterized in that the multi-axis sensor module further includes a six-axis sensor module , the six-axis sensor module being electrically connected with the central processing unit , the central processing unit being connected to the input end of the MCU , and wherein the six-axis sensor module includes a three-axis accelerometer configured for acquiring three-axis acceleration data and a three-axis gyroscope configured for acquiring three-axis angular velocity data.
A compound which is 6,6-dimethyl-2-{2-[(1-methyl-1H-pyrazol-5-yl)amino]pyrimidin-4-yl}-5-[2-(morpholin-4-yl)ethyl]-5,6-dihydro-4H-thieno[2,3-c]pyrrol-4-one; methanesulfonic acid.
Composition comprising A) 64.0-99.94 wt% of aromatic polycarbonate and B) 0.05 to 3.0 wt% of at least one polyglycidyl ether compound of the formula in which R 4 is a C 1 - to C 8 -alkyl group or an aryl group, where the alkyl group is branched or unbranched, and R 11 to R 13 are the same or different and are H, C 1 - to C 8 -alkyl radicals or aryl radicals, where the alkyl radicals are branched or unbranched. A) 64.0-99.94 wt% of aromatic polycarbonate and B) 0.05 to 3.0 wt% of at least one polyglycidyl ether compound of the formula in which R 4 is a C 1 - to C 8 -alkyl group or an aryl group, where the alkyl group is branched or unbranched, and R 11 to R 13 are the same or different and are H, C 1 - to C 8 -alkyl radicals or aryl radicals, where the alkyl radicals are branched or unbranched.
A base station device (A70) for receiving the signals transmitted from a plurality of terminal devices (A80a, A80b), the base station device (A70) is configured to: receive signals including a first DFT-S-OFDM signal and a second DFT-S-OFDM signal, the first frequency spread signals are allocated onto a first set of subcarriers consisting of a plurality of continuous subcarriers, the second frequency spread signals are allocated onto a second set of subcarriers consisting of a plurality of continuous subcarriers, wherein a portion of the second set of subcarriers overlaps in frequency with at least a portion of the first set of subcarriers in a time frame, remove the second DFT-S-OFDM signal transmitted by said overlapping subcarriers in frequency from the received signals; and demodulate information included in the first DFT-S-OFDM signal; wherein each of the first set of subcarriers and the second set of subcarriers used by one of the plurality of terminal devices (A80a, A80b) or another one of the plurality of terminal devices (A80a, A80b) is independently determined when the first set of subcarriers and the second set of subcarriers are allocated to the one of the plurality of terminal devices (A80a, A80b) and the other one of the plurality of terminal devices (A80a, A80b), respectively. receive signals including a first DFT-S-OFDM signal and a second DFT-S-OFDM signal, the first frequency spread signals are allocated onto a first set of subcarriers consisting of a plurality of continuous subcarriers, the second frequency spread signals are allocated onto a second set of subcarriers consisting of a plurality of continuous subcarriers, wherein a portion of the second set of subcarriers overlaps in frequency with at least a portion of the first set of subcarriers in a time frame, remove the second DFT-S-OFDM signal transmitted by said overlapping subcarriers in frequency from the received signals; and demodulate information included in the first DFT-S-OFDM signal; wherein each of the first set of subcarriers and the second set of subcarriers used by one of the plurality of terminal devices (A80a, A80b) or another one of the plurality of terminal devices (A80a, A80b) is independently determined when the first set of subcarriers and the second set of subcarriers are allocated to the one of the plurality of terminal devices (A80a, A80b) and the other one of the plurality of terminal devices (A80a, A80b), respectively.
An entertainment system , comprising: 1.1 a track having a plurality of air registers embedded within the track for discharging compressed air; 1.1.1 wherein at least a portion of said track is part of an underwater course ; and 1.2 an underwater vehicle (120, 122; 200; 400; 1000) having a canopy (202; 630; 1104) configured to provide a breathing air space for one or more guests; 1.2.1 said underwater vehicle further having an air engine (230; 700; 1102) that is configured to collect rising bubbles of discharged compressed air in a manner that propels the underwater vehicle along the track; 1.2.2 wherein the air engine (230; 700; 1102) comprises one or more air rotors operative to capture the rising bubbles of discharged compressed air and to convert the discharged compressed air to mechanical power to propel the underwater vehicle; 1.2.3 said underwater vehicle (120, 122; 200; 400; 1000) further including a plenum (610; 1110) on an underside of the underwater vehicle that is configured to channel the rising bubbles of discharged compressed air to the air engine (230; 700; 1102). 1.1 a track having a plurality of air registers embedded within the track for discharging compressed air; 1.1.1 wherein at least a portion of said track is part of an underwater course ; and 1.2 an underwater vehicle (120, 122; 200; 400; 1000) having a canopy (202; 630; 1104) configured to provide a breathing air space for one or more guests; 1.2.1 said underwater vehicle further having an air engine (230; 700; 1102) that is configured to collect rising bubbles of discharged compressed air in a manner that propels the underwater vehicle along the track; 1.2.2 wherein the air engine (230; 700; 1102) comprises one or more air rotors operative to capture the rising bubbles of discharged compressed air and to convert the discharged compressed air to mechanical power to propel the underwater vehicle; 1.2.3 said underwater vehicle (120, 122; 200; 400; 1000) further including a plenum (610; 1110) on an underside of the underwater vehicle that is configured to channel the rising bubbles of discharged compressed air to the air engine (230; 700; 1102). 1.2.1 said underwater vehicle further having an air engine (230; 700; 1102) that is configured to collect rising bubbles of discharged compressed air in a manner that propels the underwater vehicle along the track; 1.2.2 wherein the air engine (230; 700; 1102) comprises one or more air rotors operative to capture the rising bubbles of discharged compressed air and to convert the discharged compressed air to mechanical power to propel the underwater vehicle; 1.2.3 said underwater vehicle (120, 122; 200; 400; 1000) further including a plenum (610; 1110) on an underside of the underwater vehicle that is configured to channel the rising bubbles of discharged compressed air to the air engine (230; 700; 1102).
An optoelectronic sensor , in particular a camera, comprising an image sensor for detecting image data in its field of view and comprising a sighting device having a light source that is arranged laterally offset from the image sensor and is configured to generate alignment light and thus a light pattern in the field of view in order to make the position and/or extent of the field of view visible in space, characterized in that the sighting device comprises at least one optical meta-element having a meta-surface and/or a meta-material, which is arranged and configured such that the optical axes of the image sensor and the sighting device are coaxially superimposed.
Medical light , in particular dental treatment light for the intraoral illumination of an operation field, having an illumination unit having lighting means and optical means for generating a light field in an object plane (O), wherein the lighting means are formed by an essentially punctiform LED light source and the optical means have a plate-shaped collimator and a cover pane , wherein the collimator has a central area , which is provided with light-refracting structures on a side facing away from the LED light source , and an outer area , which surrounds the central area and which is provided with structures designed for total reflection on a side facing toward the LED light source , wherein the cover pane is provided with a lens structure, which has a plurality of individual lenses each designed to project the light emitted by the collimator and entering the lenses onto the object plane, and wherein the rear side of the central area of the collimator facing toward the LED light source is provided with partial surfaces , which have an inclination in relation to a plane (E3) of the collimator and thus in relation to the object plane (O), characterized in that the partial surfaces are designed to asymmetrically expand the light field in one direction. wherein the lighting means are formed by an essentially punctiform LED light source and the optical means have a plate-shaped collimator and a cover pane , wherein the collimator has a central area , which is provided with light-refracting structures on a side facing away from the LED light source , and an outer area , which surrounds the central area and which is provided with structures designed for total reflection on a side facing toward the LED light source , wherein the cover pane is provided with a lens structure, which has a plurality of individual lenses each designed to project the light emitted by the collimator and entering the lenses onto the object plane, and wherein the rear side of the central area of the collimator facing toward the LED light source is provided with partial surfaces , which have an inclination in relation to a plane (E3) of the collimator and thus in relation to the object plane (O), characterized in that the partial surfaces are designed to asymmetrically expand the light field in one direction.
MACHINE FOR ROLLER FINISHING OF HIDES, which comprises a rubber-coated mat , which transports said hides (P) previously deposited manually or by means of one or more mats and wherein there is also an engraved roller arranged above said hides (P), which rotates in a synchronous or reverse way with respect to the advancement direction of the hides and which deposits on the surface of the aforesaid a uniform liquid film (L), previously distributed on said roller by one or more scraper blades , said mat being supported by a plurality of rollers arranged within the volume delimited by the rubber-coated mat , at least one of said rollers being motorised, a contrast roller being present, arranged underneath the engraved roller , each of said two rollers rotating respectively about mutually parallel axes , a return roller also being provided, arranged inside the volume delimited by the rubber-coated mat , at which the deposit of the hides (P) takes place on a subsequent conveyor means , in said machine being also present washing and drying means of the mat , which operate continuously on the outer surface thereof, inside the volume delimited by the rubber-coated mat a first positioning roller further being provided, with adjustable positioning, placed in contact with the inner surface of said rubber-coated mat and downstream of the contact zone between the engraved roller and the aforesaid, the positioning variation of said first positioning roller determining the variation of the geometry of the rubber-coated mat and therefore the variation of the contact area between the hides (P) and the engraved roller , with the same distance between the axes respectively of the engraved roller and the contrast roller , said machine being also characterised in that at least one of the rollers arranged inside the volume delimited by the rubber-coated mat and in contact with the inner surface thereof, distinct from the contrast roller and from the first positioning roller , is also provided with means adapted to enable the adjustable positioning thereof and to determine the variation of the geometry of the aforesaid mat .
A kit comprising a saleable single-use package containing: - a cassette , - a set of tubes , - an organ chair configured with a venous outflow sampler into which the organ chair funnels venous outflow; and - at least one connection device configured to allow connection of the set of tubes to at least one of an organ perfusion device, an organ transporter and an organ diagnostic device, the organ chair being - configured to be removable from the cassette, wherein the organ chair is configured to support an organ within said cassette while allowing effluent medical fluid to pass therethrough, and - constructed to be form fitting and thus corresponding to a specific type of organ, wherein the cassette is configured to be received by at least one of the organ perfusion device, the organ transporter and the organ diagnostic device, and includes openings configured to allow the set of tubes to be connected to the organ by way of openings , the openings being configured to allow the set of tubes to pass therethrough, wherein a bottom portion of the cassette is liquid-tight and configured to collect medical fluid that has passed through a perfused organ to form an organ bath, and the set of tubes comprising tubes being connectable to the organ to allow perfusion of the organ. - a cassette , - a set of tubes , - an organ chair configured with a venous outflow sampler into which the organ chair funnels venous outflow; and - at least one connection device configured to allow connection of the set of tubes to at least one of an organ perfusion device, an organ transporter and an organ diagnostic device, the organ chair being - configured to be removable from the cassette, wherein the organ chair is configured to support an organ within said cassette while allowing effluent medical fluid to pass therethrough, and - constructed to be form fitting and thus corresponding to a specific type of organ,
A method for torrefaction of pre-dried wood chips, comprising the steps of: a) heating the pre-dried wood chips in at least one heating zone such that the temperature of the wood chips reaches a torrefaction temperature range within 240-400 °C, wherein the wood chips are transported through the heating zone in a horizontal direction; and b) torrefying the heated wood chips from step a) in a torrefaction zone by maintaining the temperature within the torrefaction temperature range, wherein the heated wood chips from step a) is fed to the torrefaction zone at its top and torrefied material is withdrawn from the torrefaction zone at its bottom, such that the wood chips moves downwards through the torrefaction zone by means of gravity, and wherein the temperature in the torrefaction zone is regulated by injection of a controlled amount of air or oxygen into the torrefaction zone and wherein the torrefied material is withdrawn from the bottom by means of a transport screw and wherein the speed of the transport screw is controlled to control the residence time of the material in the torrefaction zone. a) heating the pre-dried wood chips in at least one heating zone such that the temperature of the wood chips reaches a torrefaction temperature range within 240-400 °C, wherein the wood chips are transported through the heating zone in a horizontal direction; and b) torrefying the heated wood chips from step a) in a torrefaction zone by maintaining the temperature within the torrefaction temperature range,
An in vitro method of determining whether or not an individual uses alcohol, comprising the steps of: determining the methylation status of at least one CpG dinucleotide in a biological sample from the individual, wherein the at least one CpG dinucleotide comprises at least position 71389896 of chromosome 10; and correlating the methylation status of the at least one CpG dinucleotide to determine whether or not the individual uses alcohol. determining the methylation status of at least one CpG dinucleotide in a biological sample from the individual, wherein the at least one CpG dinucleotide comprises at least position 71389896 of chromosome 10; and correlating the methylation status of the at least one CpG dinucleotide to determine whether or not the individual uses alcohol.
A method of cladding the interior of a component part of a pressure vessel , comprising: obtaining the component; obtaining a lining for the component which conforms to at least a portion of the interior geometry; positioning the lining inside the interior of the component; pressing the lining into the component past the yield strength of the lining; fusing the pressed lining to the component. obtaining the component; obtaining a lining for the component which conforms to at least a portion of the interior geometry; positioning the lining inside the interior of the component; pressing the lining into the component past the yield strength of the lining; fusing the pressed lining to the component.
A method for scintigraphy imaging of the interior of the lungs of a patient suffering from an airway dysfunction comprising the steps of: (a) electrolyticly loading a carbon crucible with an isotope, said isotope being associated with an isotope carrier; (b) substantially sublimating said isotope carrier; (c) ablating the isotope in a carbon crucible thereby forming an ablation aerosol for immediate use; (d) inhaling of the aerosol by the patient; and (e) imaging the aerosol by scintigraphy. (a) electrolyticly loading a carbon crucible with an isotope, said isotope being associated with an isotope carrier; (b) substantially sublimating said isotope carrier; (c) ablating the isotope in a carbon crucible thereby forming an ablation aerosol for immediate use; (d) inhaling of the aerosol by the patient; and (e) imaging the aerosol by scintigraphy.
A rock excavating device comprising: a shaft including a first portion and a second portion connected to an end of the first portion , the first portion rotatable about a first axis , the second portion extending along a second axis that is oblique with respect to the first axis ; a cutting element including a cutting edge , the cutting element supported on the second portion of the shaft and rotatable about the second axis , the cutting edge having a leading portion and a trailing portion , the leading portion configured to engage a rock surface , the trailing portion spaced apart from the leading portion in a direction parallel to the second axis , rotation of the first portion of the shaft about the first axis changing the orientation of the second axis and the orientation of the leading portion ; and an exciter shaft and an eccentric mass supported on the the exciter shaft, the exciter shaft positioned adjacent the first portion of the shaft , and rotating about an exciter axis , rotation of the exciter shaft and the eccentric mass inducing an oscillation of the shaft and the cutting element . a shaft including a first portion and a second portion connected to an end of the first portion , the first portion rotatable about a first axis , the second portion extending along a second axis that is oblique with respect to the first axis ; a cutting element including a cutting edge , the cutting element supported on the second portion of the shaft and rotatable about the second axis , the cutting edge having a leading portion and a trailing portion , the leading portion configured to engage a rock surface , the trailing portion spaced apart from the leading portion in a direction parallel to the second axis , rotation of the first portion of the shaft about the first axis changing the orientation of the second axis and the orientation of the leading portion ; and an exciter shaft and an eccentric mass supported on the the exciter shaft, the exciter shaft positioned adjacent the first portion of the shaft , and rotating about an exciter axis , rotation of the exciter shaft and the eccentric mass inducing an oscillation of the shaft and the cutting element .
A method for producing vitamin B12 enriched Duckweed Bacterial Culture (DBC) composition, wherein said method comprises steps of: a. inoculating at least one Lemnoideae species and at least one vitamin B12 producing bacteria species in a volume of growth media; b. incubating said at least one Lemnoideae species and said at least one vitamin B12 producing bacteria species under predetermined conditions to provide a Duckweed-Bacterial Culture (DBC); c. plotting Lemnoideae plant biomass at said predetermined conditions against time; d. plotting bacterial count of said at least one B12 producing bacteria species at said predetermined conditions against time; e. plotting vitamin B12 content in said DBC at said predetermined conditions against time; f. determining time intervals within said plots characterized by DBC with highest vitamin B12 content; and g. harvesting said DBC at said predetermined time intervals, thereby providing vitamin B12 enriched DBC composition. a. inoculating at least one Lemnoideae species and at least one vitamin B12 producing bacteria species in a volume of growth media; b. incubating said at least one Lemnoideae species and said at least one vitamin B12 producing bacteria species under predetermined conditions to provide a Duckweed-Bacterial Culture (DBC); c. plotting Lemnoideae plant biomass at said predetermined conditions against time; d. plotting bacterial count of said at least one B12 producing bacteria species at said predetermined conditions against time; e. plotting vitamin B12 content in said DBC at said predetermined conditions against time; f. determining time intervals within said plots characterized by DBC with highest vitamin B12 content; and g. harvesting said DBC at said predetermined time intervals, thereby providing vitamin B12 enriched DBC composition.