mhurhangee/patent-ind-claim-en huggingface dataset:
Nozzle arrangement for applying fluids , in particular thermoplastic adhesives, to a substrate , wherein the nozzle arrangement and the substrate move relative to one another in a first direction, wherein the nozzle arrangement has a main body which is able to be connected, preferably exchangeably, to a mounting region of a distributor and which has an end-side side surface which extends in a second direction, which runs at least substantially perpendicular to the first direction; wherein, in the end-side side surface of the main body , a multiplicity of mutually adjacently arranged first outlet nozzles for the fluid to be applied is formed in a first row extending along the second direction; wherein, in the end-side side surface of the main body , a multiplicity of mutually adjacently arranged second outlet nozzles for a second fluid is furthermore formed in a second row extending along the second direction, wherein the second row runs parallel to the first row; and wherein, in the end-side side surface of the main body , a multiplicity of mutually adjacently arranged third outlet nozzles for a fluid, in particular for the second fluid, is furthermore formed in a third row extending along the second direction, wherein the first row, with the first outlet nozzles , is arranged between the second and third rows, with the second and third outlet nozzles , and wherein the effective surface of the nozzle openings of the second and third outlet nozzles is of an equal size or at least substantially of an equal size. characterized in that the nozzle arrangement is in the form of a laminated nozzle assembly which consists of a multiplicity of sheet-like elements which are areally connected to one another. wherein, in the end-side side surface of the main body , a multiplicity of mutually adjacently arranged first outlet nozzles for the fluid to be applied is formed in a first row extending along the second direction; wherein, in the end-side side surface of the main body , a multiplicity of mutually adjacently arranged second outlet nozzles for a second fluid is furthermore formed in a second row extending along the second direction, wherein the second row runs parallel to the first row; and wherein, in the end-side side surface of the main body , a multiplicity of mutually adjacently arranged third outlet nozzles for a fluid, in particular for the second fluid, is furthermore formed in a third row extending along the second direction, wherein the first row, with the first outlet nozzles , is arranged between the second and third rows, with the second and third outlet nozzles , and wherein the effective surface of the nozzle openings of the second and third outlet nozzles is of an equal size or at least substantially of an equal size. characterized in that the nozzle arrangement is in the form of a laminated nozzle assembly which consists of a multiplicity of sheet-like elements which are areally connected to one another.
A slipform paving machine, comprising: a machine frame ; a plurality of ground engaging units for supporting the slipform paving machine from a ground surface; a plurality of height adjustable machine frame supports supporting the machine frame from the plurality of ground engaging units , each of the machine frame supports including a machine frame support actuator configured to adjust a height of the machine frame relative to a respective one of the ground engaging units , and each of the machine frame supports including a machine frame support sensor configured to provide a signal corresponding to the height of the machine frame relative to the respective one of the ground engaging units ; an offset mold including a mold frame ; a mold frame actuator configured to adjust a height of the mold frame relative to the machine frame ; a mold frame sensor configured to provide a signal corresponding to the height of the mold frame relative to the machine frame ; an external reference sensor configured to provide a signal representative of a position of the slipform paving machine relative to an external reference system; and a controller configured to: receive the signal from the external reference sensor ; and control extension of the machine frame support actuators and the mold frame actuator to control a height of the mold frame relative to the ground surface. a machine frame ; a plurality of ground engaging units for supporting the slipform paving machine from a ground surface; a plurality of height adjustable machine frame supports supporting the machine frame from the plurality of ground engaging units , each of the machine frame supports including a machine frame support actuator configured to adjust a height of the machine frame relative to a respective one of the ground engaging units , and each of the machine frame supports including a machine frame support sensor configured to provide a signal corresponding to the height of the machine frame relative to the respective one of the ground engaging units ; an offset mold including a mold frame ; a mold frame actuator configured to adjust a height of the mold frame relative to the machine frame ; a mold frame sensor configured to provide a signal corresponding to the height of the mold frame relative to the machine frame ; an external reference sensor configured to provide a signal representative of a position of the slipform paving machine relative to an external reference system; and a controller configured to: receive the signal from the external reference sensor ; and control extension of the machine frame support actuators and the mold frame actuator to control a height of the mold frame relative to the ground surface. receive the signal from the external reference sensor ; and control extension of the machine frame support actuators and the mold frame actuator to control a height of the mold frame relative to the ground surface.
Cylinder lock and key, the cylinder lock comprising a housing and rotatably provided therein a cylinder having a first end and a second end , the cylinder extending in a longitudinal direction between the first end and the second end, the cylinder comprising an internal keyway for placing the key corresponding to the lock in the cylinder, the lock further comprising a locking mechanism that prevents rotation of the cylinder with respect to the housing when the key is not present in the keyway, wherein the lock comprises a blocking element positioned between the first and second end, which blocking element is configurable to take a first position wherein the keyway is blocked such that the key cannot be placed in the keyway, and a second position wherein the keyway is unblocked such that the key can be placed therein, wherein the lock comprises a configuration means to configure the blocking element in the first or second position, wherein the configuration means is controlled by wireless communication between the lock and a remote control unit , wherein the locking mechanism comprises multiple pins , and the blocking element and each of the pins are of congruent shape and the blocking element has a position adjacent the entry of the keyway, at a positon most near to the entry of the keyway, characterised in that the remote control unit is operatively connected to the key and in that the key is provided with a transmitter that is able to send a signal to provide said communication.
Method for determining the frequency distribution of the signal level of a measurement signal which is respectively measured in overlapping observation intervals by means of a time or frequency raster with the following method steps: determination of the incrementation of a memory cell in a first memory to be carried out for a measured signal level of the measurement signal at a value of the time or frequency raster, the method being characterised by undelayed summation of the incrementation respectively determined for each memory cell of the first memory in each measurement cycle and buffering of the result of the undelayed summation in a second memory , delayed summation of the incrementation respectively determined for each memory cell of the first memory in each measurement cycle and buffering of the result of the delayed summation in a third memory and subtraction of the result of the delayed summation of the incrementation respectively determined for each memory cell of the first memory in each measurement cycle from the result of the undelayed summation of the incrementation respectively determined for each memory cell of the first memory in each measurement cycle. determination of the incrementation of a memory cell in a first memory to be carried out for a measured signal level of the measurement signal at a value of the time or frequency raster, the method being characterised by undelayed summation of the incrementation respectively determined for each memory cell of the first memory in each measurement cycle and buffering of the result of the undelayed summation in a second memory , delayed summation of the incrementation respectively determined for each memory cell of the first memory in each measurement cycle and buffering of the result of the delayed summation in a third memory and subtraction of the result of the delayed summation of the incrementation respectively determined for each memory cell of the first memory in each measurement cycle from the result of the undelayed summation of the incrementation respectively determined for each memory cell of the first memory in each measurement cycle.
Method for compacting a harvested crop in a silo by means of an agricultural working machine , the compaction work of which is controlled in dependence on at least one piece of control information (D, D_pos, PRO_d, S_st), wherein - a density profile (PRO_d), which represents a target density (d_soll) of the harvested crop in dependence on a silo position (p1_sil, p2_sil, p3_sil) along a predetermined silo length (L) of the silo or a silo portion (ΔL1, ΔL2, ΔL3) along a predetermined silo length (L) of the silo , is determined as a piece of control information, and - a travel speed (v_ma) of the working machine is controlled during the compaction work in dependence on the determined density profile (PRO_d), characterized in that the density profile (PRO_d) is determined in dependence on a comparison between an extraction rate (v_akt) and a target rate (v_soll), wherein - the extraction rate (v_akt) is dependent on a feed quantity (R_f) for animals to be fed which is actually required in an extraction time period (Δt_ent) from the silo , and - the target rate (v_soll) is determined as a target feedout rate independently of the feed quantity (R_f) required for the same extraction time period (Δt_ent) from the silo . - a density profile (PRO_d), which represents a target density (d_soll) of the harvested crop in dependence on a silo position (p1_sil, p2_sil, p3_sil) along a predetermined silo length (L) of the silo or a silo portion (ΔL1, ΔL2, ΔL3) along a predetermined silo length (L) of the silo , is determined as a piece of control information, and - a travel speed (v_ma) of the working machine is controlled during the compaction work in dependence on the determined density profile (PRO_d), characterized in that the density profile (PRO_d) is determined in dependence on a comparison between an extraction rate (v_akt) and a target rate (v_soll), wherein - the extraction rate (v_akt) is dependent on a feed quantity (R_f) for animals to be fed which is actually required in an extraction time period (Δt_ent) from the silo , and - the target rate (v_soll) is determined as a target feedout rate independently of the feed quantity (R_f) required for the same extraction time period (Δt_ent) from the silo .
A method of making a graphite article with a desired set of properties, comprising a. mixing a first amount of coke derived from a petroleum product with a second amount coke derived from lignin, thereby forming a green mixture; b. forming the green mixture into a desired shape, thereby forming a green article; c. carbonizing and graphitizing the green article, wherein the second amount comprises by weight at least 0.01 percent to less than 50 percent of a total amount of coke used to make the graphite article. a. mixing a first amount of coke derived from a petroleum product with a second amount coke derived from lignin, thereby forming a green mixture; b. forming the green mixture into a desired shape, thereby forming a green article; c. carbonizing and graphitizing the green article,
A receiving antenna of a wireless power receiving device wirelessly charging electric power, the receiving antenna comprising: a substrate; a soft magnetic layer stacked on the substrate; a receiving coil wound in parallel with a plane of the soft magnetic layer , and formed inside of the soft magnetic layer ; and an adhesive layer formed between the soft magnetic layer and the receiving coil , characterized in that , the receiving coil is embedded in one surface of the soft magnetic layer , the adhesive layer includes a first adhesive layer formed on the soft magnetic layer , an insulating layer formed on the first adhesive layer , and a second adhesive layer formed on the insulating layer . a substrate; a soft magnetic layer stacked on the substrate; a receiving coil wound in parallel with a plane of the soft magnetic layer , and formed inside of the soft magnetic layer ; and an adhesive layer formed between the soft magnetic layer and the receiving coil , characterized in that , the receiving coil is embedded in one surface of the soft magnetic layer , the adhesive layer includes a first adhesive layer formed on the soft magnetic layer , an insulating layer formed on the first adhesive layer , and a second adhesive layer formed on the insulating layer .
Method for sensing at least one working region (10a; 10b; 10c) of an autonomous working device (30a; 30b; 30c), in particular of an autonomous lawnmower, wherein the autonomous working device (30a; 30b; 30c) comprises at least one first sensing unit (32a; 32b; 32c) and at least one second sensing unit (34a; 34b; 34c), wherein, in at least one first method step, an environment (12a; 12b; 12c) is sensed by means of the first sensing unit (32a; 32b; 32c), characterized in that , in at least one second method step, the working region (10a; 10b; 10c) is defined by means of the second sensing unit (34a; 34b; 34c) by means of at least one marking object (50a; 50b), the movement of which within the environment (12a; 12b; 12c) is sensed, wherein the movement of the marking object (50a; 50b) is sensed at least largely independently of a movement of the autonomous working device (30a; 30b) and/or the autonomous working device at least partially follows the marking object (50a; 50b), in particular at a distance of as a maximum 10 m, preferably at most 5 m, preferably as a maximum 3 m, particularly advantageously at most 2 m, particularly preferably as a maximum 1 m.
A computer-implemented method comprising: displaying a user interface presenting a plurality of selectable labels for each of a plurality of selectable applications; enabling , through the user interface , selection of an application (402 - 418) of the plurality of selectable applications for parallel presentation in an immersive environment on one or more displays associated with a computing device, the immersive environment including a primary region and a non-primary region and being configured for presenting content of and enabling interaction with one or more of the applications on the one or more displays with little or no window frame; indicating one or more applications (402 - 418) with a pinning selection icon as maintained in one or both of the immersive environment and the user interface ; and selecting an application and responsive to the selection, causing content of the selected application to be presented in the immersive environment and in parallel with presentation of content of a different application also presented in the immersive environment , wherein the selected application is presented in the primary region of the immersive environment and the different application is removed from the primary region of the immersive environment and presented in the non-primary region of the immersive environment if the different application is indicated with the pinning selection icon and is removed from the immersive environment if the different application is not indicated with the pinning selection icon . displaying a user interface presenting a plurality of selectable labels for each of a plurality of selectable applications; enabling , through the user interface , selection of an application (402 - 418) of the plurality of selectable applications for parallel presentation in an immersive environment on one or more displays associated with a computing device, the immersive environment including a primary region and a non-primary region and being configured for presenting content of and enabling interaction with one or more of the applications on the one or more displays with little or no window frame; indicating one or more applications (402 - 418) with a pinning selection icon as maintained in one or both of the immersive environment and the user interface ; and selecting an application and responsive to the selection, causing content of the selected application to be presented in the immersive environment and in parallel with presentation of content of a different application also presented in the immersive environment , wherein the selected application is presented in the primary region of the immersive environment and the different application is removed from the primary region of the immersive environment and presented in the non-primary region of the immersive environment if the different application is indicated with the pinning selection icon and is removed from the immersive environment if the different application is not indicated with the pinning selection icon .
Process for transporting ore on conveyor belts and/or transfer chutes to a cargo ship whilst reducing the ore moisture to less than the Transportable Moisture Limit, characterized by the following steps: step 1 - insert ore in a closed and isolated environment; step 2 - remove atmospheric air moisture; step 3 - heat the atmospheric air coming from the step 2; step 4 - insufflating dry and hot air from step 3 in the closed environment containing ore , wherein the moisture is removed from the atmospheric air by using a hot and dry air provider unit comprising an evaporator unit for condensing water vapour in the environment comprised of a cooling system, preferably a Fancoil type device, at least one heating unit and at least one forced ventilation unit , and wherein hot and dry air is blown in counter flow to the ore . step 1 - insert ore in a closed and isolated environment; step 2 - remove atmospheric air moisture; step 3 - heat the atmospheric air coming from the step 2; step 4 - insufflating dry and hot air from step 3 in the closed environment containing ore ,
Container of a fluid or dusty cosmetic or medical substance comprising an external element made of glass and an internal element inserted in a mouth of the external element , the internal element comprising a flange , characterized in that the internal element , comprises, in correspondence with the mouth of the external element , at least two perimeter swellings which, deforming at least elastically, fix the internal element to the external one, the swellings being located underneath said flange and in contact with said flange .
A cargo handling vehicle for handling cargo within narrow aisles comprising, means for autonomous navigation , a chassis having at least two pairs of ground engaging means wherein each ground engaging means is independently steerable and individually driven by a respective driving means, a lifting boom provided on the chassis extending in the extension direction of said chassis , the lifting boom having a first end and a second end wherein the first end is attached to the chassis enabling movement of the second end in a vertical and horizontal direction and the second end is provided with a lifting unit , characterized in that the lifting unit is arranged rotatably in a horizontal plane, and in that the means for autonomous navigation of the cargo handling vehicle is arranged to determine a travel angle for the cargo handling vehicle based on a determined width of the narrow aisle.
A system for use during administration of cardiopulmonary resuscitation, CPR, chest compressions and defibrillating shock on a victim , the system comprising: a chest compression monitor comprising a motion sensor configured to provide signals indicative of motion of the chest of the victim during the chest compressions; and a control system operatively coupled to the chest compression monitor , the control system configured to: receive the signals from the chest compression monitor to determine a compression waveform representative of the chest compressions experienced by the victim, determine at least one compression waveform characteristic from the compression waveform, determine a source of the chest compressions based on the at least one compression waveform characteristic, predetermined compression waveform characteristics for manual chest compressions provided by a CPR provider, and predetermined compression waveform characteristics for automated chest compressions provided by a piston-based chest compression device, and provide feedback for a rescuer , wherein the feedback is based on the determined source of the chest compressions. a chest compression monitor comprising a motion sensor configured to provide signals indicative of motion of the chest of the victim during the chest compressions; and a control system operatively coupled to the chest compression monitor , the control system configured to: receive the signals from the chest compression monitor to determine a compression waveform representative of the chest compressions experienced by the victim, determine at least one compression waveform characteristic from the compression waveform, determine a source of the chest compressions based on the at least one compression waveform characteristic, predetermined compression waveform characteristics for manual chest compressions provided by a CPR provider, and predetermined compression waveform characteristics for automated chest compressions provided by a piston-based chest compression device, and provide feedback for a rescuer , wherein the feedback is based on the determined source of the chest compressions. receive the signals from the chest compression monitor to determine a compression waveform representative of the chest compressions experienced by the victim, determine at least one compression waveform characteristic from the compression waveform, determine a source of the chest compressions based on the at least one compression waveform characteristic, predetermined compression waveform characteristics for manual chest compressions provided by a CPR provider, and predetermined compression waveform characteristics for automated chest compressions provided by a piston-based chest compression device, and provide feedback for a rescuer , wherein the feedback is based on the determined source of the chest compressions.
A method for coating a screw element for the connection of pipes , preferably of motor vehicle pipes, wherein the screw element has at least one thread as well as at least one threadless contact surface , wherein the thread is at least sectionally provided with a first coating , and wherein the threadless contact surface is at least sectionally provided with a second coating , characterized in that both the first coating of the thread as well as the second coating of the threadless contact surface are applied to the thread or to the threadless contact surface via plasma coating, that the first coating has a friction value μ1 and the second coating a friction value μ2, and that the first friction value μ1 is larger than the second friction value μ2.