mhurhangee/patent-ind-claim-en huggingface dataset:
A rapid assembly system comprising a mounting and a plate assembled removably to the mounting , the system comprising at least two connection devices between the plate and the mounting , each device also comprising clamping means for holding the plate against the mounting , each connection device comprising a tooth comprising a pair of tooth engagement surfaces positioned in a V shape and the theoretical intersection whereof extends in a tooth direction (F1), and a groove comprising a pair of groove engagement surfaces for engaging the tooth engagement surfaces , the tooth directions of at least two different connection devices being oblique with respect to one another, characterized in that the clamping means comprise at least one clamping device , each clamping device comprising at least one slide engaging, in the clamped position, against a groove clamping surface provided in the groove and inclined by 45° at the most with respect to the axis of the slide so as to press the tooth and groove engagement surfaces together.
A wireless device for wireless communications, the wireless device comprising: processing circuitry including a processor and a memory , the memory configured to store instructions that, when executed by the processor , configure the wireless device to: receive activation information before a completion of a handover of the wireless device from a serving network node to a target network node , the activation information indicating that a first set of a plurality of sets of reference signal configurations has been activated for reference signal feedback, the activation information being received during a Random Access Channel, RACH, procedure with the target network node included in the handover; and provide reference signal feedback based on the first set of the plurality of sets of reference signal configurations. receive activation information before a completion of a handover of the wireless device from a serving network node to a target network node , the activation information indicating that a first set of a plurality of sets of reference signal configurations has been activated for reference signal feedback, the activation information being received during a Random Access Channel, RACH, procedure with the target network node included in the handover; and provide reference signal feedback based on the first set of the plurality of sets of reference signal configurations.
A relay system for switching current to a load comprising: a plurality of relays arranged in an electrically parallel configuration, each relay sized to carry a portion of the current to the load; and a semiconductor switch assembly connected across the plurality of relays configured to protect each of the relays from passing excess current during a transient time period when their contacts are opening or closing, wherein the relay system is configured such that a closure of the semiconductor switch assembly occurs before a closure of the relay contacts, wherein, as the relay contacts start to close, the bulk of the load current momentarily passes through the semiconductor switch assembly and not through the relay contacts by virtue of a low on-resistance of the semiconductor switch assembly , and wherein the relay system is configured such that a closure of the semiconductor switch assembly occurs when the relay contacts start to open and therefore a resistance across the relay contacts starts to increase, wherein, as the relay contacts continue to open, the current is shunted more and more from the relay contacts through to the semiconductor switch assembly . a plurality of relays arranged in an electrically parallel configuration, each relay sized to carry a portion of the current to the load; and a semiconductor switch assembly connected across the plurality of relays configured to protect each of the relays from passing excess current during a transient time period when their contacts are opening or closing,
A clutch assembly for a drive train of a motor vehicle, having a housing , a support mounted such that it can rotate relative to the housing about a rotational axis , an electric machine rotationally coupled via its rotor to the support , a plurality of clutches , wherein a clutch component of each clutch is accommodated on the support in a non-rotatable manner, and an actuation device having at least one slave cylinder , wherein the at least one slave cylinder actuatingly acts on a clutch , wherein the at least one slave cylinder is supported in an axial direction on a support bearing which, in an operating state, fixes the support relative to a region secured to the housing, characterised in that the support bearing is seated axially behind the at least one slave cylinder and is formed either by a ball bearing or a needle bearing.
An animal feed being selected from the group consisting of silage, pelletized feed and mash feed, the said animal feed being supplemented with a composition comprising a xylanase, wherein the said xylanase is hyperthermophilic and hyperthermostable, wherein the optimum temperature of the xylanolytic activity present in the said composition is higher than 80°C, wherein more than 70% of the xylanolytic activity present in the said composition is resistant to 30 minutes of heating at 90°C and wherein the ratio of activity of the xylanolytic activity present in the said composition at optimal temperature and at 40°C is higher than 10.
Cooking appliance with a housing , in which a cooking chamber is configured, and with a door for closing the cooking chamber , said door being arranged in a movable manner on the housing , wherein a handle is arranged in a fixed location on the door , and with a storage space , which is separate from the cooking chamber and configured in the housing , into which the door can be lowered in the opened state, wherein the storage space has at least one guide track , in which a guide element of the door is guided, wherein the guide element is supported movably on the door , characterised in that the guide element is connected directly to a first end of a retaining spring on the door , which maintains a coupling position of the guide element on the door for mounting the door to the housing , wherein the guide element has an integrated adjusting pin , the actuation of which can bring about the release of a mounted state of the door on the guide track , wherein the adjusting pin is configured in the manner of a bar and is arranged with its longitudinal axis (K) in the coupling position at an angle between 10° and 40° relative to a vertical axis (H) of the door .
A packaging assembly holding an article, the article comprising at least first and second features which are held in predetermined closed and open configurations (C, O) of the packaging assembly , the packaging assembly comprising: at least two sections arranged to be secured in place relative to one another in the predetermined closed configuration of the packaging assembly , and move relative to one another in the predetermined open configuration (O) of the packaging assembly , the at least two sections forming an inner surface defining an attachment area for receiving the article; at least one instruction area located along the inner surface and having indicia pointing to the first and second features of the article for placement in the packaging assembly and displayed relative to the attachment area ; wherein the indicia comprise at least a first indicator and a second indicator , the first indicator arranged for corresponding to donning at least the first feature of the article according to a sequence of use, and the second indicator arranged for corresponding to subsequently donning at least the second feature of the article according to the sequence of use; wherein the packaging assembly is arranged to support the article in a preconfigured condition for donning. at least two sections arranged to be secured in place relative to one another in the predetermined closed configuration of the packaging assembly , and move relative to one another in the predetermined open configuration (O) of the packaging assembly , the at least two sections forming an inner surface defining an attachment area for receiving the article; at least one instruction area located along the inner surface and having indicia pointing to the first and second features of the article for placement in the packaging assembly and displayed relative to the attachment area ; wherein the indicia comprise at least a first indicator and a second indicator , the first indicator arranged for corresponding to donning at least the first feature of the article according to a sequence of use, and the second indicator arranged for corresponding to subsequently donning at least the second feature of the article according to the sequence of use; wherein the packaging assembly is arranged to support the article in a preconfigured condition for donning.
Process comprising the following steps: - injecting in an optical fiber a first optical pump at a first optical frequency (f 1 , f 2 , f 3 , f 4 ) that evolves in time or not, and a second optical pump at a second optical frequency (f' 1 , f' 2 , f' 3 , f' 4 ) that evolves in time or not, the first optical frequency and the second optical frequency being different at each given time, - a first detection of a first Rayleigh backscattered signal at the first optical frequency from the optical fiber - a second detection, separated from the first detection, of a second Rayleigh backscattered signal at the second optical frequency from the optical fiber - analyzing the detected first Rayleigh backscattered signal and the detected second Rayleigh backscattered signal, characterized in that the first and second optical frequencies have, in absolute value, the same frequency difference with respect to a source frequency (f 0 ), the source frequency remaining constant in time. - injecting in an optical fiber a first optical pump at a first optical frequency (f 1 , f 2 , f 3 , f 4 ) that evolves in time or not, and a second optical pump at a second optical frequency (f' 1 , f' 2 , f' 3 , f' 4 ) that evolves in time or not, the first optical frequency and the second optical frequency being different at each given time, - a first detection of a first Rayleigh backscattered signal at the first optical frequency from the optical fiber - a second detection, separated from the first detection, of a second Rayleigh backscattered signal at the second optical frequency from the optical fiber - analyzing the detected first Rayleigh backscattered signal and the detected second Rayleigh backscattered signal,
A computer-implemented method, comprising: receiving input data from a plurality of sensors ; processing the input data to generate one or more output maps including terrain data; generating a planting pattern for a planting operation using the one or more output maps, the planting pattern defining a plurality of locations wherein each location of the plurality of locations is associated with at least one species of plant to be planted at the location by a planting platform and one or more planting conditions; determining a quantity of planting platforms available; dividing the planting pattern into a plurality of portions based on the quantity of planting platforms available, wherein the planting platforms include one or more unmanned aerial vehicles (UAVs); uploading to each available planting platform a corresponding portion of the plurality of portions; and executing the planting operation using the available planting platforms . receiving input data from a plurality of sensors ; processing the input data to generate one or more output maps including terrain data; generating a planting pattern for a planting operation using the one or more output maps, the planting pattern defining a plurality of locations wherein each location of the plurality of locations is associated with at least one species of plant to be planted at the location by a planting platform and one or more planting conditions; determining a quantity of planting platforms available; dividing the planting pattern into a plurality of portions based on the quantity of planting platforms available, wherein the planting platforms include one or more unmanned aerial vehicles (UAVs); uploading to each available planting platform a corresponding portion of the plurality of portions; and executing the planting operation using the available planting platforms .
Compressor of a turbomachine, comprising a front compressor region , a middle compressor region and a rear compressor region having an outlet guide baffle , a radially averaged degree of reaction which has fallen from a maximum to a minimum in the front compressor region being kept constant or almost constant, with respect to the direction of a main flow, over the middle compressor region as far as the rear compressor region , a radially averaged degree of reaction which is closer to the minimum than to the maximum being set in the rear compressor region , and a residual swirl of at least 47° being set in the rear compressor region upstream of the outlet guide baffle in the middle section. a front compressor region , a middle compressor region and a rear compressor region having an outlet guide baffle ,
A display device comprising: a display panel ; at least one light source ; a diffusion plate disposed opposite the at least one light source and having an emission surface that faces away from the at least one light source, the diffusion plate being configured to diffuse light from the at least one light source to emit the light from the at least one light source from the emission surface; and an optical member disposed between the diffusion plate and the at least one light source and having at least one transmitting portion that is configured to transmit the light from the at least one light source, and a reflective portion that is configured to reflect the light from the at least one light source, characterized by a plurality of adhesive layers bonding the optical member and the diffusion plate with an air layer therebetween, the adhesive layers being arranged spaced apart from each other in a direction in which the optical member extends, the air layer having the same thickness as the adhesive layers and being located between an adjacent pair of the adhesive layers. a display panel ; at least one light source ; a diffusion plate disposed opposite the at least one light source and having an emission surface that faces away from the at least one light source, the diffusion plate being configured to diffuse light from the at least one light source to emit the light from the at least one light source from the emission surface; and an optical member disposed between the diffusion plate and the at least one light source and having at least one transmitting portion that is configured to transmit the light from the at least one light source, and a reflective portion that is configured to reflect the light from the at least one light source, at least one transmitting portion that is configured to transmit the light from the at least one light source, and a reflective portion that is configured to reflect the light from the at least one light source, characterized by a plurality of adhesive layers bonding the optical member and the diffusion plate with an air layer therebetween, the adhesive layers being arranged spaced apart from each other in a direction in which the optical member extends, the air layer having the same thickness as the adhesive layers and being located between an adjacent pair of the adhesive layers. the adhesive layers being arranged spaced apart from each other in a direction in which the optical member extends, the air layer having the same thickness as the adhesive layers and being located between an adjacent pair of the adhesive layers.
A Fe-based hydrogenation catalyst having Fe as a primary active metal component, and zinc and potassium as a first co-active element component, based on the total weight of the Fe-based hydrogenation catalyst, a total amount of the primary active metal component and first co-active element component is 5-100%, with the balance being a binder or carrier, in terms of oxides, wherein the molar ratio of the primary active metal component to the first co-active metal component is 0.5-200:1; wherein the Fe-based hydrogenation catalyst is a sulfurized Fe-based hydrogenation catalyst.
A dental splint device for guided robotic surgery, said device comprising: an elongate first splint portion having first and second longitudinal ends , and a first interface edge extending therebetween; an elongate second splint portion having first and second longitudinal ends , and a second interface edge extending therebetween, the second splint portion co-extending with the first splint portion with the second interface edge arranged as a complement to the first interface edge ; a threaded member engaged between the first and second splint portions and arranged to advance the first and second interface edges toward each other in response to advancement of the threaded member relative to the first and second splint portions ; a tracking portion engaged with the first splint portion or the second splint portion and extending outwardly therefrom, the tracking portion having a kinematic mount engaged therewith; and an alignment provision including a first alignment element engaged with the first splint portion and a second alignment element engaged with the second splint portion , the first and second alignment elements being arranged to interact with each other to align the first and second splint portions to provide a substantially consistent gap defined between the first and second interface edges , from the respective first ends to the respective second ends of the first and second splint portions , as the first and second splint portions are advanced toward each other by advancement of the threaded member . an elongate first splint portion having first and second longitudinal ends , and a first interface edge extending therebetween; an elongate second splint portion having first and second longitudinal ends , and a second interface edge extending therebetween, the second splint portion co-extending with the first splint portion with the second interface edge arranged as a complement to the first interface edge ; a threaded member engaged between the first and second splint portions and arranged to advance the first and second interface edges toward each other in response to advancement of the threaded member relative to the first and second splint portions ; a tracking portion engaged with the first splint portion or the second splint portion and extending outwardly therefrom, the tracking portion having a kinematic mount engaged therewith; and an alignment provision including a first alignment element engaged with the first splint portion and a second alignment element engaged with the second splint portion , the first and second alignment elements being arranged to interact with each other to align the first and second splint portions to provide a substantially consistent gap defined between the first and second interface edges , from the respective first ends to the respective second ends of the first and second splint portions , as the first and second splint portions are advanced toward each other by advancement of the threaded member .
A preparation method of an epoxy resin electromagnetic wave-absorbing composite material, comprising: heating epoxy resin to temperature T1, adding carbon black, and then ultrasonically dispersing them for 30~60 minutes; to obtain a mixture of the epoxy resin and the carbon black, wherein T1 is 50°C~70°C; heating the mixture of the epoxy resin and the carbon black to temperature T2, adding a curing agent, and stirring and dissolving them to obtain a mixture of the epoxy resin, the carbon black, and the curing agent, wherein T2 is 100°C~120°C; and adding surface-treated hollow glass microbeads into the mixture of the epoxy resin, the carbon black, and the curing agent, and curing them to obtain the epoxy resin electromagnetic wave-absorbing composite material, the preparation method further comprises: adding glacial acetic acid into an ethanol-water mixed solution to adjust pH, then adding a silane coupling agent into them to obtain a silane coupling agent solution; and further adding hollow glass microbeads into the silane coupling agent solution to obtain a hollow glass microbeads solution; heating the hollow glass microbeads solution to 80°C~100°C, stirring, filtering, washing, and then drying the hollow glass microbeads solution in the vacuum circumstance to obtain the surface-treated hollow glass microbeads. heating epoxy resin to temperature T1, adding carbon black, and then ultrasonically dispersing them for 30~60 minutes; to obtain a mixture of the epoxy resin and the carbon black, wherein T1 is 50°C~70°C; heating the mixture of the epoxy resin and the carbon black to temperature T2, adding a curing agent, and stirring and dissolving them to obtain a mixture of the epoxy resin, the carbon black, and the curing agent, wherein T2 is 100°C~120°C; and adding surface-treated hollow glass microbeads into the mixture of the epoxy resin, the carbon black, and the curing agent, and curing them to obtain the epoxy resin electromagnetic wave-absorbing composite material, the preparation method further comprises: adding glacial acetic acid into an ethanol-water mixed solution to adjust pH, then adding a silane coupling agent into them to obtain a silane coupling agent solution; and further adding hollow glass microbeads into the silane coupling agent solution to obtain a hollow glass microbeads solution; heating the hollow glass microbeads solution to 80°C~100°C, stirring, filtering, washing, and then drying the hollow glass microbeads solution in the vacuum circumstance to obtain the surface-treated hollow glass microbeads.
A method for simulating optical lenses in augmented reality using a mobile apparatus including at least one input peripheral (11 a ) and one display peripheral , said method including at least, one capture phase (P1) including at least the following step: a1 ) Capturing at least one image of a user's environment using at least one image capture element ; one data acquisition phase (P2); being characterised in that it includes at least the following step: b1 ) Determining the distance between the mobile apparatus and at least one object in the environment using at least one measurement unit ; and one simulation phase (P3) implemented by at least one processing unit of the mobile apparatus , including at least the following step: c1 ) Applying a virtual lens reproducing the optical effect of an actual determined optical-correction lens, on said at least one image of the environment, depending on the data acquired during the data acquisition phase (P2) and displaying the simulation on a display peripheral ; one capture phase (P1) including at least the following step: a1 ) Capturing at least one image of a user's environment using at least one image capture element ; one data acquisition phase (P2); being characterised in that it includes at least the following step: b1 ) Determining the distance between the mobile apparatus and at least one object in the environment using at least one measurement unit ; and one simulation phase (P3) implemented by at least one processing unit of the mobile apparatus , including at least the following step: c1 ) Applying a virtual lens reproducing the optical effect of an actual determined optical-correction lens, on said at least one image of the environment, depending on the data acquired during the data acquisition phase (P2) and displaying the simulation on a display peripheral ;