mhurhangee/patent-ind-claim-en huggingface dataset:
Tool for attaching a joining element , having a head and a fillet present in the region of the head , to a component portion, having a die unit, a punch , which is movable linearly towards the die unit on a working axis (A) of the tool from a retracted position on the tool and is retractable again, wherein the working axis (A) coincides with a punch longitudinal axis, a positioning portion for holding a joining element presented in a presentation position such that, during its movement towards the die unit in the direction of the component portion, the punch can carry along the joining element , wherein the positioning portion comprises a bearing contour in order to hold a joining element with a coordinated external shape in the presentation position , in an orientation defined by the shape of the bearing contour , by bearing in a fitting manner against the bearing contour , characterized in that the bearing contour has a portion that extends convexly in the direction of the working axis and is coordinated with the shape of the fillet present on the joining element , and the positioning portion has positioning means that are designed in such a way that the longitudinal axis of the joining element in the presentation position is offset with respect to the working axis in a manner oriented in parallel, and in that the joining element is retracted slightly from the presentation position upon being carried along by the punch counter to the direction of movement when being transported into the presentation position.
A geared motor arrangement with a gear unit driven by two motors (M2, M3), comprising a superposition gear means, in particular differential gear means, comprising a planetary gear set with crown wheel , planet wheels and pinion cage, wherein torque flows can be brought together by means of the planetary gear set by way of two input shafts of the gear unit, wherein a first one of the input shafts drives a central wheel , in particular a sun wheel, of the planetary gear set , wherein the central wheel is arranged in a first axial region of the first input shaft and is connected thereto there in rotation-resistant manner or is formed in one piece therewith, wherein the second input shaft drives the pinion cage, on which the planets, i.e. planet wheels , of the planetary gear set which are engaged with the central wheel and the crown wheel are mounted, or wherein the second input shaft drives the crown wheel by way of a coupling, with which wheel the planet wheels which are also engaged with the central wheel are engaged, or wherein the second input shaft bears gearing which drives external gearing which is provided on the crown wheel , wherein the planet wheels which are also engaged with the central wheel are engaged with the internal gearing of the crown wheel , and wherein at least one output shaft of the superposition gear means is the input shaft of a single-stage or multi-stage parallel-shaft gear, characterised in that the first input shaft is freely mounted, in that - in the first axial region it is arranged by way of the central wheel on three planet wheels of the planetary gear set - and in a second axial region it is mounted on an input device by way of a shaft coupling , namely on a shaft of a first motor (M2) of the two motors which is embodied as an electric motor, the first input shaft in the region of the shaft coupling having external gearing which engages in internal gearing of the shaft of the input device (M2) which is formed crowned. - in the first axial region it is arranged by way of the central wheel on three planet wheels of the planetary gear set - and in a second axial region it is mounted on an input device by way of a shaft coupling , namely on a shaft of a first motor (M2) of the two motors which is embodied as an electric motor,
A cleanroom coverall comprising a coverall suit , a ventilator positioned inside said coverall suit, the ventilator being fluidly connected to the ambient of the cleanroom coverall, characterized in that between the ambient of the cleanroom coverall and the ventilator, a one-way valve is present, the one-way valve being situated upstream the ventilator, which one-way valve opens when the ventilator is active.
Cover element for furniture or the like, preferably of the plinth type to be associated by means of a hooking element to a support foot of a piece of furniture for the front cover of said foot , wherein it comprises a section bar which extends longitudinally along an X axis and which comprises two walls which are mutually facing and spaced along a Z axis, perpendicular to the X axis, and which are connected to each other by bridges so as to delimit at least two cavities superimposed on each other along a Y axis which is perpendicular to the X and Z axes, and wherein: - said section bar is made, at least in part or preferably entirely, of a material comprising polyolefin, characterized in that , - said two walls and said bridges have a thickness of less than 1.5 mm, - the thickness (S1) of one of said two walls, preferably the one which in use is intended to have an exposed face , is greater with respect to the thickness (S2) of said bridges . - said section bar is made, at least in part or preferably entirely, of a material comprising polyolefin, characterized in that , - said two walls and said bridges have a thickness of less than 1.5 mm, - the thickness (S1) of one of said two walls, preferably the one which in use is intended to have an exposed face , is greater with respect to the thickness (S2) of said bridges .
A device for dispensing air and/or sealant to a tire of a vehicle , the device comprising: a pressure source ; a dispenser outlet connected to the pressure source; a connector element ; and a control module in communication with each of the connector element and the pressure source , wherein the connector element is configured to connect to a vehicle data communication port to obtain inflation information and power. a pressure source ; a dispenser outlet connected to the pressure source; a connector element ; and a control module in communication with each of the connector element and the pressure source , wherein the connector element is configured to connect to a vehicle data communication port to obtain inflation information and power.
A system for purifying incoming fluid, the system being modular and comprising: (a) a heat exchanger module ; (b) an evaporator-condenser module ; and (c) a compressor ; the system being configured to facilitate passive drainage of the purified fluid for collection, and the above components being arranged in a stacked configuration to facilitate gravitational flow of the purified fluid such that the purified fluid drains passively for collection; characterized in that the heat exchanger module has a housing containing a thermally conductive coiled tube , wherein the heat exchanger module defines an incoming fluid flow channel formed by a void in the housing ; the housing defines a first chamber containing a heater and receiving a vertically disposed conductive tube carrying pressurised vapour from the compressor ; wherein the vertically disposed conductive tube extends through the evaporator-condenser module and is configured to deliver pressurised vapour into a condenser tube of the evaporator-condenser module ; and wherein the vertically disposed conductive tube has an outlet for injecting pressurised vapour into the first chamber to degas fluid in the first chamber . (a) a heat exchanger module ; (b) an evaporator-condenser module ; and (c) a compressor ;
Biostimulant composition for plants, characterized in that it comprises: micronized zeolite and micronized calcareous algae, the mass ratio between the zeolite content and the content of calcareous algae being between 0.25 and 4, the zeolite and the calcareous algae having, respectively, a particle size such that the diameter D90 is less than 20 μm, when the diameter D90 is measured by laser particle size analysis in accordance with the standard ISO 13320:2020 on the basis of the Fraunhofer scattering model, the zeolite and the calcareous algae together representing at least 90%, by mass, of the solid matter of the composition, and any possible solid component other than the zeolite and a calcareous alga being present in the composition in an individual mass content not exceeding 50% of the value that is the smaller between the mass content of calcareous algae and the mass content of zeolite.
A method comprising steps of: receiving alarms from a network; utilizing a machine learning model to classify the alarms as one of important and non-important based on a plurality of insights including roles of different teams or people, predicted service impact, predicted level of priority of resolving the alarm, and predicted time and resource required for resolution; and displaying the important alarms based on the plurality of insights, and suppressing display of the non-important alarms. receiving alarms from a network; utilizing a machine learning model to classify the alarms as one of important and non-important based on a plurality of insights including roles of different teams or people, predicted service impact, predicted level of priority of resolving the alarm, and predicted time and resource required for resolution; and displaying the important alarms based on the plurality of insights, and suppressing display of the non-important alarms.
A polymer micelle containing an active ingredient for use in photodynamic therapy of tumours, wherein said micelle, produced using hydration method of a thin film of block copolymers, contains block copolymers: poly(ethylene oxide-6-propylene oxide-6-ethylene oxide) with the general formula 1, in which x denotes the number of polyoxyethylene groups (PEO), with a value from 5 to 100; y denotes the number of polyoxypropylene groups (PPO), with a value from 65 to 69; wherein active ingredient is selected from a group of photosensitizer encompassing cyanins, wherein said block copolymer is a copolymer (PEO) 20 -(PPO) 69 -(PEO) 20 and said active ingredient is 2-[2-[2-chloro-3-[(1,3-dihydro-3,3-dimethyl-1-propyl-2H- indolyl-2-ylidenyl)ethylidenyl]-1-cyclohexen-1-yl]ethenyl]-3,3-dimethyl-1-propylindole iodide (cyanin IR-780). x denotes the number of polyoxyethylene groups (PEO), with a value from 5 to 100; y denotes the number of polyoxypropylene groups (PPO), with a value from 65 to 69;
A capacitive in cell touch panel, including: a color filter substrate , a TFT array substrate , and a liquid crystal layer enclosed between the color filter substrate and the TFT array substrate , a plurality of pixel units arranged in a matrix form are provided on the TFT array substrate , wherein, the color filter substrate includes a plurality of touch sensing electrodes extending along the column direction of the plurality of pixel units ; the TFT array substrate includes a plurality of touch driving electrodes extending along the row direction of the plurality of pixel units , the touch driving electrodes together constitute a common electrode layer of the TFT array substrate ; and within a time period for displaying one frame of images, the touch driving electrodes are used for transferring common electrode signals and touch scanning signals in a time-sharing manner, characterized in that each of the plurality of touch driving electrodes corresponds to a plurality of rows of pixel units , wherein every two adjacent rows of pixel units in the TFT array substrate forms a pixel units set, and two gate signal lines are provided between the two adjacent rows of pixel units in the pixel units set to provide gate scanning signals to the two adjacent rows of pixel units respectively, and wherein a common electrode signal line is provided at a gap between two adjacent pixel units sets and the common electrode signal line is electrically connected to a corresponding touch driving electrode .
A method for providing energy storage devices positioned in a device-exchange station , the device-exchange station comprising a plurality of slots (217a-h), the method comprising: receiving a request for retrieving two energy storage devices in the device-exchange station ; selecting a first energy storage device from a plurality of energy storage devices positioned in the device-exchange station based on characteristic information of each of the energy storage devices ; selecting a second energy storage device from the rest of the plurality of energy storage devices positioned in the device-exchange station based on the characteristic information of the first energy storage device and the rest of the plurality of energy storage devices ; and releasing the first and second energy storage devices ; the method characterized in that a distance between two of the slots (217a-h) where the first and the second energy storage devices are positioned is smaller than a distance threshold. receiving a request for retrieving two energy storage devices in the device-exchange station ; selecting a first energy storage device from a plurality of energy storage devices positioned in the device-exchange station based on characteristic information of each of the energy storage devices ; selecting a second energy storage device from the rest of the plurality of energy storage devices positioned in the device-exchange station based on the characteristic information of the first energy storage device and the rest of the plurality of energy storage devices ; and releasing the first and second energy storage devices ; the method characterized in that a distance between two of the slots (217a-h) where the first and the second energy storage devices are positioned is smaller than a distance threshold.
A method for controlling data transmission, the method being applied to a first device, and the method comprising: sending a request for data transmission ; receiving a main transmission path that fed back by a second device based on the request, the main transmission path being generated by connecting M sink nodes between the first device and the second device and M being an integer greater than 1 , the M sink nodes being in a transmission path with a maximum performance evaluation value, that is determined from N transmission paths between the first device and the second device according to a performance evaluation value of each transmission path and N is an integer greater than 1, and the performance evaluation value of each transmission path being determined by performing a weighting average operation on performance parameters of each of a plurality of sink nodes in the transmission path and a weight value corresponding to each of the performance parameters; wherein the performance parameters comprise at least one of: a data receiving and sending frequency, a packet loss rate, an uplink data transmission rate, a downlink data transmission rate, a bearing bandwidth, the number of access users, or the number of antennas; and performing the data transmission with the second device according to the main transmission path . sending a request for data transmission ; receiving a main transmission path that fed back by a second device based on the request, the main transmission path being generated by connecting M sink nodes between the first device and the second device and M being an integer greater than 1 , the M sink nodes being in a transmission path with a maximum performance evaluation value, that is determined from N transmission paths between the first device and the second device according to a performance evaluation value of each transmission path and N is an integer greater than 1, and the performance evaluation value of each transmission path being determined by performing a weighting average operation on performance parameters of each of a plurality of sink nodes in the transmission path and a weight value corresponding to each of the performance parameters; wherein the performance parameters comprise at least one of: a data receiving and sending frequency, a packet loss rate, an uplink data transmission rate, a downlink data transmission rate, a bearing bandwidth, the number of access users, or the number of antennas; and performing the data transmission with the second device according to the main transmission path .
An adhesive comprising a copolymer in the range of 5 to 95 weight percent, wherein the copolymer consists of propylene and ethylene, wherein said copolymer has a softening point in the range of 110 to 124 °C, wherein said copolymer has a needle penetration that is equal to y, wherein y is defined by the following formula: y ≤ − 0.000000262249 x 6 + 0.000172031278 x 5 − 0.046669720165 x 4 + 6.701746779438 x 3 − 537.286013331959 x 2 + 22 , 802.983472587 x − 400 , 204.018086126 , wherein x in the above formula is the softening point of said copolymer, wherein said copolymer comprises at least 14 weight percent ethylene, wherein said needle penetration of said copolymer is in the range of 1 to 30 dmm, and the weight ratio of propylene to ethylene in said copolymer is in the range of 1 :1 to 10:1. the copolymer consists of propylene and ethylene, wherein said copolymer has a softening point in the range of 110 to 124 °C, wherein said copolymer has a needle penetration that is equal to y, wherein y is defined by the following formula: y ≤ − 0.000000262249 x 6 + 0.000172031278 x 5 − 0.046669720165 x 4 + 6.701746779438 x 3 − 537.286013331959 x 2 + 22 , 802.983472587 x − 400 , 204.018086126 , wherein x in the above formula is the softening point of said copolymer, wherein said copolymer comprises at least 14 weight percent ethylene, wherein said needle penetration of said copolymer is in the range of 1 to 30 dmm, and the weight ratio of propylene to ethylene in said copolymer is in the range of 1 :1 to 10:1. wherein said copolymer has a softening point in the range of 110 to 124 °C, wherein said copolymer has a needle penetration that is equal to y, wherein y is defined by the following formula: y ≤ − 0.000000262249 x 6 + 0.000172031278 x 5 − 0.046669720165 x 4 + 6.701746779438 x 3 − 537.286013331959 x 2 + 22 , 802.983472587 x − 400 , 204.018086126 , wherein x in the above formula is the softening point of said copolymer, wherein said copolymer comprises at least 14 weight percent ethylene, wherein said needle penetration of said copolymer is in the range of 1 to 30 dmm, and the weight ratio of propylene to ethylene in said copolymer is in the range of 1 :1 to 10:1.
Sensor apparatus for capturing at least one flow property of a fluid medium, comprising at least one sensor housing , at least one electronics module , at least one flow sensor , at least one pressure sensor and at least one moisture sensor , wherein the sensor housing comprises at least one plug-in sensor which can be introduced into the flowing fluid medium, wherein at least one electronics module having at least one flow sensor for capturing the flow property, in particular at least one hot film air mass meter chip, is accommodated in the sensor housing , wherein at least one pressure sensor and at least one moisture sensor are also accommodated inside the sensor housing , wherein the sensor housing has at least one electronics compartment , wherein the electronics module is at least partially accommodated in the electronics compartment , wherein the pressure sensor and the moisture sensor are also arranged in the electronics compartment , characterized in that the pressure sensor and the moisture sensor are arranged independently of the electronics module in the sensor housing , wherein the moisture sensor and the pressure sensor are adhesively bonded into the sensor housing on a first mounting level in the base area of the electronics compartment below a second mounting level on which the electronics module is arranged in the sensor housing , and in that the moisture sensor is integrated in a moisture module and the moisture module is connected to a connector of the plug-in sensor by means of bonding wire connections.
Heating device, in particular gas and/or oil heating device, having at least one control unit (10a; 10b), which is provided to adjust an air ratio to a target air ratio as a function of at least one air ratio characteristic variable and at least one combustion air flow characteristic variable , having at least one sensor unit (18a; 18b) which is provided to measure the air ratio characteristic variable , having at least one combustion air metering unit (20a; 20b), which is provided to deliver at least a combustion air flow (22a; 22b) at least as a function of an effective combustion air flow characteristic variable , wherein the control unit (10a; 10b) is provided to adjust the air ratio to the target air ratio to determine a virtual combustion air flow characteristic variable , characterized in that the control unit (10a; 10b) is provided to determine a time delay by impressing a temporary change on the combustion air flow and/or the combustion air-fuel mixture flow , in that the control unit (10a; 10b) comprises at least one heating output time delay characteristic curve , which is provided to assign a time delay of the air ratio characteristic variable and a heating output of the heating device to each other, by means of which the control unit (10a; 10b) is provided to determine the heating output , in that the control unit (10a; 10b) comprises a heating output-combustion air flow characteristic variable characteristic wave, which is provided to assign the heating output and the virtual combustion air flow characteristic variable to each other, by means of which the control unit (10a; 10b) is provided to determine the virtual combustion air flow characteristic variable , and in that the control unit (10a; 10b) is provided to determine a deviation of the virtual combustion air flow characteristic variable from the effective combustion air flow characteristic variable and to take it into account during an adjustment of the air ratio to the target air ratio, and in that the control unit (10a; 10b) for adjusting the air ratio to the target air ratio has at least one control characteristic curve , which is formed as an air ratio characteristic variable-combustion air flow characteristic variable characteristic curve that is provided to assign the combustion air flow characteristic variable, in particular the virtual combustion air flow characteristic variable and/or the effective combustion air flow characteristic variable, and the air ratio characteristic variable to each other.