mhurhangee/patent-ind-claim-en huggingface dataset:
A printed medium processing device having a device for punching a filing and/or hole margin of a printed medium with at least two holes, wherein the punching device is assigned to the printed medium outlet of the printed medium processing device, and has a punching module , which is arranged in a stationary manner and which has only one upstroke or hole punch , for successively punching the at least two filing holes at predefinable hole positions in the filing and/or hole margin of the printed medium , wherein at least one conveying roll is provided for the printed medium , by means of which conveying roll the printed medium can be positioned relative to the punching module at the at least two predefinable hole positions, and the conveying roll is assigned a control/regulating device , via which the positioning of the printed medium relative to the punching module at the at least two predefinable hole positions can be controlled or regulated.
A mounting apparatus for mounting a fan arrangement on a seat , which mounting apparatus comprises an installation element and a fan housing for the fan arrangement , the fan housing including a tubular housing part having a first housing part end and a second housing part end located opposite it, a protective grid being provided at the second housing part end , said grid being configured to enable the transport of air through the tubular housing part ; and the installation element comprising a tubular installation part having a first installation part end and a second installation part end located opposite it, a protective grid being provided at the first installation part end , said grid being configured to enable the transport of air through the tubular installation part ; at least one outwardly projecting flange , which is implemented to form, upon installation of the installation element with a surface facing toward the second installation part end , a stop relative to an element of the seat , being provided at the first installation part end on the outer side of the tabular installation part ; and the installation element being shaped in such a way that, after installation thereof on a seat , introduction of the tubular housing part of the fan housing into the tubular installation part is possible from the second installation part end thereof.
A sighting system for use with firearms , comprising: an LED light ; a power source for powering the LED light ; a circuit that receives current from the power source and provides current to the LED light ; a housing for encasing the LED light , power source and circuit to act as an independent unit; wherein the housing is designed to be retrofit entirely on top of the firearm , so that in dim light a user is guided by light from the LED light to align the firearm toward a target; and characterized by the circuit being designed so that the current provided to the LED light is lower than 1% of a minimum forward current listed for the LED light by the LED light manufacturer and responsive to the current the LED light provides light that is visible in a dark surrounding. an LED light ; a power source for powering the LED light ; a circuit that receives current from the power source and provides current to the LED light ; a housing for encasing the LED light , power source and circuit to act as an independent unit; wherein the housing is designed to be retrofit entirely on top of the firearm , so that in dim light a user is guided by light from the LED light to align the firearm toward a target; and characterized by the circuit being designed so that the current provided to the LED light is lower than 1% of a minimum forward current listed for the LED light by the LED light manufacturer and responsive to the current the LED light provides light that is visible in a dark surrounding.
Unmanned aircraft comprising a central body out of which emerge propulsion arms , the central body having an aircraft nose ; a wind sensor comprising either a wind speed and direction sensor or a wind speed sensor and a wind direction sensor, each propulsion arm comprising at least one engine associated to at least one propeller ; a microcontroller having an automatic pilot , the engines being actuated by way of Electronic Speed Control (ESC) devices associated to the automatic pilot characterized in that the automatic pilot is configured to acquire data of the wind sensor and to send corresponding instructions to the Electronic Speed Control (ESC) devices of the engines which by a differential action will maintain the aircraft with its nose orientated towards the direction of the prevailing wind regardless of the direction in which the aircraft is flying; and in that the aircraft comprises at least one adjustable supporting plane comprising mobile segments, wherein the microcontroller is configured to assign a specific degree of deployment of the mobile segments according to the wind speed.
A system for controlling an exposure dose of a light source, comprising an LED light source , a light homogenizer , an energy detection unit and an exposure dose control unit coupled to both the LED light source and the energy detection unit, the energy detection unit comprising an energy detector corresponding to the LED light source or the light homogenizer and an energy spot sensor corresponding to a wafer; wherein the exposure dose control unit comprises an LED light source controller and a dose control circuit board , which are coupled to each other, the LED light source controller coupled to the LED light source , the dose control circuit board coupled to both the energy detector and the energy spot sensor ; characterized in that the dose control circuit board stores thereon data about cumulative doses from shutdown to complete dark of the LED light source at various light intensities. wherein the exposure dose control unit comprises an LED light source controller and a dose control circuit board , which are coupled to each other, the LED light source controller coupled to the LED light source , the dose control circuit board coupled to both the energy detector and the energy spot sensor ; characterized in that the dose control circuit board stores thereon data about cumulative doses from shutdown to complete dark of the LED light source at various light intensities.
A method of manufacturing an automobile frame component made of thin steel sheets, the automobile frame component comprising a closed section constituted by welding a flange portion of a frame component having a substantially hat-like sectional shape to another frame component or a panel part disposed facing the flange portion , a weldable gap amount being formed between the flange portion and the another frame component or panel part disposed facing the flange portion wherein the weldable gap amount is the upper limit value for the inter-sheet distance where no welding defects occur ; the method characterised in that : when a welding position coordinate is represented in a coordinate system in a direction parallel to the flange portion in which an end of a contact position between the flange portion and the other frame component or the panel part is assumed as 0, and a flange outer end side of the flange portion is assumed as negative whereas a vertical wall side in the substantially hat-like shape is assumed as positive, and when a radius of a circular arc-like portion connecting a vertical wall portion and the flange portion in the substantially hat-like shape is denoted as R mm, and the weldable gap amount is denoted as a mm, a welding position X mm in parallel to the flange portion and the other frame component or the panel part disposed facing the flange portion , represented by the following formula: + √ 2 Ra − a 2 ≥ X where X > 1.5 mm, and R ≥ 2 mm, is continuously welded using a one-side welding method.
A method implemented by a Message Scripting Service, MSS, for a service layer supporting an IoT service through a set of Application Programming Interfaces, APIs, the method comprising: detecting a first device to connect to the IoT service; identifying a first API by performing a lookup to a library based on a type of the first device, wherein the library comprises RESTful APIs for publicly available devices; instantiating a first scripted request resource defined in the first API, wherein the first scripted request resource defines how an IoT application interacts with the first device; configuring an attribute of the first scripted request resource in accordance with a request received from the IoT application to interact with the first device; and controlling behaviors of the first device based on the first scripted request resource. detecting a first device to connect to the IoT service; identifying a first API by performing a lookup to a library based on a type of the first device, wherein the library comprises RESTful APIs for publicly available devices; instantiating a first scripted request resource defined in the first API, wherein the first scripted request resource defines how an IoT application interacts with the first device; configuring an attribute of the first scripted request resource in accordance with a request received from the IoT application to interact with the first device; and controlling behaviors of the first device based on the first scripted request resource.
A method for manufacturing an assembly comprising a thermoplastic liner , a boss , a seal element and a compressing element , characterised in that the method comprises at least the steps of: 1) Forming a boss subassembly by positioning the seal element into the boss and by securing the compressing element inside said seal element , such that the seal element is compressed into the boss (S01), said compressing element being at least partially made of a thermoplastic material which is chemically compatible with the thermoplastic liner ; 2) Placing the boss subassembly in a mold for molding the thermoplastic liner , the boss subassembly being on and outside the thermoplastic liner , in such a way that the boss subassembly wraps the liner (S02); 3) Molding the thermoplastic liner and attaching the boss subassembly to the thermoplastic liner during said molding (S03), wherein the compressing element is at least partially welded to the thermoplastic liner during said molding. 1) Forming a boss subassembly by positioning the seal element into the boss and by securing the compressing element inside said seal element , such that the seal element is compressed into the boss (S01), said compressing element being at least partially made of a thermoplastic material which is chemically compatible with the thermoplastic liner ; 2) Placing the boss subassembly in a mold for molding the thermoplastic liner , the boss subassembly being on and outside the thermoplastic liner , in such a way that the boss subassembly wraps the liner (S02); 3) Molding the thermoplastic liner and attaching the boss subassembly to the thermoplastic liner during said molding (S03),
An intravascular catheter (A1407) comprising an elongated shaft (A1001) and a head (A101, A201, A605, A1303) for ultrasonic transmission, wherein said head comprises: a chassis (A109, A211, A303, A805, A1211) comprising at least three facets (A115), each facet sized to receive a piezoelectric transceiver; a plurality of piezoelectric transceivers (A103, A203, A205, A413, A803, A1203) peripherally mounted onto said facets of said chassis, said transceivers configured to be electrically activated for emitting ultrasound energy suitable for tissue ablation, and for receiving echo signals; wherein each transceiver is positioned to face a different circumferential region of a lumen and wherein said transceivers are configured so that an outwardly facing angle α exists between beams emitted by adjacent transceivers; and a distancing element (A1301, B101, B201, B405, B701, B801, B901, B1005, B1101, B1305, C211, D211, E211) configured for positioning said catheter within the lumen, said distancing element including a slotted cylinder having a plurality of expandable leaflets (A1307, B111, B211, B301, B803/B805, B1011, B1319) with slots (B109, B207, B703) therebetween, said transceivers configured to emit unfocused ultrasound energy suitable for ablating tissue when said transceivers are positioned a distance away from a lumen wall, said expandable leaflets configured to expand to position said catheter configured a large enough distance away from the lumen wall to provide a passageway for blood to flow between a transceiver and the wall to cool the wall. a chassis (A109, A211, A303, A805, A1211) comprising at least three facets (A115), each facet sized to receive a piezoelectric transceiver; a plurality of piezoelectric transceivers (A103, A203, A205, A413, A803, A1203) peripherally mounted onto said facets of said chassis, said transceivers configured to be electrically activated for emitting ultrasound energy suitable for tissue ablation, and for receiving echo signals; wherein each transceiver is positioned to face a different circumferential region of a lumen and wherein said transceivers are configured so that an outwardly facing angle α exists between beams emitted by adjacent transceivers; and a distancing element (A1301, B101, B201, B405, B701, B801, B901, B1005, B1101, B1305, C211, D211, E211) configured for positioning said catheter within the lumen, said distancing element including a slotted cylinder having a plurality of expandable leaflets (A1307, B111, B211, B301, B803/B805, B1011, B1319) with slots (B109, B207, B703) therebetween, said transceivers configured to emit unfocused ultrasound energy suitable for ablating tissue when said transceivers are positioned a distance away from a lumen wall, said expandable leaflets configured to expand to position said catheter configured a large enough distance away from the lumen wall to provide a passageway for blood to flow between a transceiver and the wall to cool the wall.
A method for the preparation of a glucagon peptide, comprising: a) Providing a liquid composition (C) comprising a glucagon peptide and at least one unwanted component; b) Subjecting the composition (C) to a first reversed phase high performance liquid chromatography (RP-HPLC) purification, wherein a hydrocarbon bonded silica is used as a stationary phase, an aqueous mobile phase comprising triethylammonium phosphate and acetonitrile is used, and elution is effected by gradually increasing the acetonitrile concentration within the mobile phase while collecting fractions containing the glucagon peptide; and c) Subjecting the pooled glucagon peptide containing fractions obtained in step b) to a second reversed phase HPLC purification, wherein a hydrocarbon bonded silica is used as a stationary phase, a mobile phase comprising acetic acid and acetonitrile is used, and elution is effected by gradually increasing the acetonitrile concentration within the mobile phase while collecting fractions containing the purified glucagon peptide. a) Providing a liquid composition (C) comprising a glucagon peptide and at least one unwanted component; b) Subjecting the composition (C) to a first reversed phase high performance liquid chromatography (RP-HPLC) purification, wherein a hydrocarbon bonded silica is used as a stationary phase, an aqueous mobile phase comprising triethylammonium phosphate and acetonitrile is used, and elution is effected by gradually increasing the acetonitrile concentration within the mobile phase while collecting fractions containing the glucagon peptide; and c) Subjecting the pooled glucagon peptide containing fractions obtained in step b) to a second reversed phase HPLC purification, wherein a hydrocarbon bonded silica is used as a stationary phase, a mobile phase comprising acetic acid and acetonitrile is used, and elution is effected by gradually increasing the acetonitrile concentration within the mobile phase while collecting fractions containing the purified glucagon peptide.
A system comprising: a radar antenna array; a hardware logic component ; and a computing device , wherein the hardware logic component and the computing device are configured to collectively perform acts comprising: responsive to receipt of radar data that is indicative of a radar return received by the radar antenna array from a field of view, FOV, of the radar antenna array, encoding the radar data into a first embedding in a first latent space; transforming the first embedding to a second embedding by providing the first embedding as input to a neural network, wherein the second embedding is included in output of the neural network; and decoding the second embedding to generate beamformed radar data, wherein the beamformed radar data is indicative of a partial radar return received by the radar antenna array from a subset of the FOV of the radar antenna array. a radar antenna array; a hardware logic component ; and a computing device , wherein the hardware logic component and the computing device are configured to collectively perform acts comprising: responsive to receipt of radar data that is indicative of a radar return received by the radar antenna array from a field of view, FOV, of the radar antenna array, encoding the radar data into a first embedding in a first latent space; transforming the first embedding to a second embedding by providing the first embedding as input to a neural network, wherein the second embedding is included in output of the neural network; and decoding the second embedding to generate beamformed radar data, wherein the beamformed radar data is indicative of a partial radar return received by the radar antenna array from a subset of the FOV of the radar antenna array. responsive to receipt of radar data that is indicative of a radar return received by the radar antenna array from a field of view, FOV, of the radar antenna array, encoding the radar data into a first embedding in a first latent space; transforming the first embedding to a second embedding by providing the first embedding as input to a neural network, wherein the second embedding is included in output of the neural network; and decoding the second embedding to generate beamformed radar data, wherein the beamformed radar data is indicative of a partial radar return received by the radar antenna array from a subset of the FOV of the radar antenna array.
A buffer device with a self-adjustable stop, the device comprising a buffer head in the form of a shank and a socket into which said buffer head in the form of a shank can be driven axially, the device further comprising an annular ring inserted axially in an axial bore of said socket and actuatable in turning to block the axial position of said buffer head in said socket , said ring comprising a bottom edge defining a thrust ramp designed, when said ring is caused to turn, for producing a cam effect with said axial bore in a counterbore in the end of said socket and enabling said buffer head to be raised, the device being characterized in that : • said shank of said buffer head presents along its entire length at least one flat , and adjacent to said at least one flat , at least one zone of touching ribs or grooves forming serrations; • said ring has an inside surface having at least one smooth longitudinal strip that extends axially, and at least one ribbed longitudinal strip that extends adjacent to the at least one said smooth strip; • said shank of said buffer head is prevented from turning under said counterbore in said socket ; • the outer annular surface of said ring is provided with a cam path defining a cam profile that co-operates with at least one cam follower finger provided on the top edge of said bore ; and • said ring and said shank of said buffer head are designed so that said ring has a first angular position in said socket in which the at least one flat is facing the at least one ribbed longitudinal strip and the at least one zone of touching ribs is facing the at least one smooth longitudinal strip , said buffer head being then able be driven into said ring serration by serration, and a second angular position in which the serrations of the shank of said buffer head are engaged in said ribs of said ring and said buffer head is blocked in axial position. • said shank of said buffer head presents along its entire length at least one flat , and adjacent to said at least one flat , at least one zone of touching ribs or grooves forming serrations; • said ring has an inside surface having at least one smooth longitudinal strip that extends axially, and at least one ribbed longitudinal strip that extends adjacent to the at least one said smooth strip; • said shank of said buffer head is prevented from turning under said counterbore in said socket ; • the outer annular surface of said ring is provided with a cam path defining a cam profile that co-operates with at least one cam follower finger provided on the top edge of said bore ; and • said ring and said shank of said buffer head are designed so that said ring has a first angular position in said socket in which the at least one flat is facing the at least one ribbed longitudinal strip and the at least one zone of touching ribs is facing the at least one smooth longitudinal strip , said buffer head being then able be driven into said ring serration by serration, and a second angular position in which the serrations of the shank of said buffer head are engaged in said ribs of said ring and said buffer head is blocked in axial position.
An apparatus comprising: a clock tree coupled to distribute a clock signal to each of a plurality of leaf nodes , wherein each leaf node is coupled to one or more synchronous circuits ; a plurality of fine-grain clock gating units , wherein each of the plurality of fine-grain clock gating units is configured to gate the clock signal provided to each of the one or more synchronous circuits of a corresponding one of the plurality of leaf nodes; a functional unit including a number of the plurality of fine-grain clock gating units in a subset of the plurality of leaf nodes; a coarse clock gating unit configured to gate the clock signal for each of the subset of the plurality of leaf nodes; and a gating control unit coupled to the coarse clock gating unit, wherein the gating control unit is configured to selectively control a frequency of the clock signal provided to each of the subset of the plurality of leaf nodes by enabling one of every N cycles of the clock signal and inhibiting N-1 of every N cycles of the clock signal, wherein N is an integer value that is greater than one; characterized in that the gating control unit is configured to dynamically change the frequency without suspending operation of the functional unit . a clock tree coupled to distribute a clock signal to each of a plurality of leaf nodes , wherein each leaf node is coupled to one or more synchronous circuits ; a plurality of fine-grain clock gating units , wherein each of the plurality of fine-grain clock gating units is configured to gate the clock signal provided to each of the one or more synchronous circuits of a corresponding one of the plurality of leaf nodes; a functional unit including a number of the plurality of fine-grain clock gating units in a subset of the plurality of leaf nodes; a coarse clock gating unit configured to gate the clock signal for each of the subset of the plurality of leaf nodes; and a gating control unit coupled to the coarse clock gating unit, wherein the gating control unit is configured to selectively control a frequency of the clock signal provided to each of the subset of the plurality of leaf nodes by enabling one of every N cycles of the clock signal and inhibiting N-1 of every N cycles of the clock signal, wherein N is an integer value that is greater than one; characterized in that the gating control unit is configured to dynamically change the frequency without suspending operation of the functional unit .