mhurhangee/patent-ind-claim-en huggingface dataset:
Support element , in particular for receiving axial forces applied by means of a fastening means , wherein the support element has a support sleeve , wherein the support sleeve has a through-opening which is configured in the axial direction (Z), in particular for receiving the fastening means , wherein the support element has a bearing means , wherein the support sleeve is mounted in the bearing means , wherein the support sleeve and the bearing means are connected together, wherein the bearing means has a shank with a first shank portion and a second shank portion adjoining the first shank portion in the axial direction (Z), wherein the first shank portion has a holding means, wherein the holding means protrudes radially outwardly relative to the second shank portion and is deformable radially inwardly counter to a restoring force, wherein the bearing means consists of a first material and the support sleeve consists of a second material, wherein the first material and the second material are different, wherein the first material is a plastic and the second material is metal or an alloy.
A pressure monitoring arrangement for monitoring cylinder pressure of a piston engine , the arrangement comprising a linear encoder comprising a read head and a scale and being configured to monitor displacement of a component of the piston engine for determining cylinder pressure on the basis of a measured displacement value, characterized in that the encoder is arranged to monitor displacement of a cylinder liner or a cylinder head in relation to an engine block .
A method, comprising: receiving an image captured using a sensor on a vehicle; decomposing the received image into a plurality of image components comprising a high-pass image component and a low-pass image component, wherein the high-pass image component is extracted via performing a high-pass filter on the received image and the low-pass image component is extracted via performing a low-pass filter on the received image; providing each image component of the plurality of image components as a different input to a different layer of a plurality of layers of an artificial neural network to determine a result, the high-pass image component being provided as an initial input to the first layer of the artificial neural network and the low-pass image component being provided as input to a later layer of the artificial neural network , wherein an expected input data size at the later layer receiving the low-pass image component is smaller than an expected input data size of the first layer; and using the result of the artificial neural network to control the vehicle to at least in part autonomously operate the vehicle. receiving an image captured using a sensor on a vehicle; decomposing the received image into a plurality of image components comprising a high-pass image component and a low-pass image component, wherein the high-pass image component is extracted via performing a high-pass filter on the received image and the low-pass image component is extracted via performing a low-pass filter on the received image; providing each image component of the plurality of image components as a different input to a different layer of a plurality of layers of an artificial neural network to determine a result, the high-pass image component being provided as an initial input to the first layer of the artificial neural network and the low-pass image component being provided as input to a later layer of the artificial neural network , wherein an expected input data size at the later layer receiving the low-pass image component is smaller than an expected input data size of the first layer; and using the result of the artificial neural network to control the vehicle to at least in part autonomously operate the vehicle.
A heat transfer label suitable for labeling performance fabrics with minimal transfer marking, comprising: a. a support portion having a label carrier and a non-marking release layer; and b. a transfer portion, said transfer portion being positioned over said support portion release layer for transfer of the transfer portion from the support portion to a performance fabric under conditions of heat and pressure for a given dwell time, said transfer portion comprising: i. a hot melt adhesive layer having a first surface and a second surface, the first surface being exposed to permit its direct contact with a performance fabric to be labeled, and ii. an ink design, said ink design is in contact and in conformity with the second surface of the hot melt adhesive layer, said ink design exhibits recoverable stretch properties; characterized in that c. said hot melt adhesive layer securely adheres the heat transfer label to performance fabrics at a bonder application temperature of below about 140°C, bonder application pressure of below about 1 Bar and for a bonder application dwell time of less than 15 seconds, while minimizing or substantially eliminating transfer marks on the performance fabrics. a. a support portion having a label carrier and a non-marking release layer; and b. a transfer portion, said transfer portion being positioned over said support portion release layer for transfer of the transfer portion from the support portion to a performance fabric under conditions of heat and pressure for a given dwell time, said transfer portion comprising: i. a hot melt adhesive layer having a first surface and a second surface, the first surface being exposed to permit its direct contact with a performance fabric to be labeled, and ii. an ink design, said ink design is in contact and in conformity with the second surface of the hot melt adhesive layer, said ink design exhibits recoverable stretch properties; characterized in that i. a hot melt adhesive layer having a first surface and a second surface, the first surface being exposed to permit its direct contact with a performance fabric to be labeled, and ii. an ink design, said ink design is in contact and in conformity with the second surface of the hot melt adhesive layer, said ink design exhibits recoverable stretch properties; characterized in that c. said hot melt adhesive layer securely adheres the heat transfer label to performance fabrics at a bonder application temperature of below about 140°C, bonder application pressure of below about 1 Bar and for a bonder application dwell time of less than 15 seconds, while minimizing or substantially eliminating transfer marks on the performance fabrics.
A compact secondary battery module , comprising: a cartridge assembly having a plurality of cartridges stacked while accommodating cells , respectively, so that a plurality of lead welding portions where a first lead and a second lead of adjacent cells overlap with each other are located at a cartridge sidewall with a predetermined pattern, the first lead and the second lead having opposite polarities and being bent in opposite directions, the first lead and the second lead each extending and being bent from a side of each cell; and a sensing housing having a plurality of bus bars located and welded corresponding to the lead welding portions, respectively, the sensing housing including a battery management system (BMS) circuit board configured to manage voltage and/or temperature data of each cell detected by each bus bar, the sensing housing being arranged at the sidewall of the cartridge assembly, wherein the sensing housing is coupled to the cartridge assembly, and the second lead is located between the first lead and the bus bar , the first lead facing the sidewall of the cartridge and the second lead facing the first lead, the bus bar being positioned outside from the second lead and being welded at one point to the first lead and to the second lead, wherein each of the first lead and second lead of each cell is bent at a right angle at 0.8 to 1.2 mm from a lead insulation portion of each of the first lead and second lead, the lead insulation portion being accommodated in the corresponding cartridge . a cartridge assembly having a plurality of cartridges stacked while accommodating cells , respectively, so that a plurality of lead welding portions where a first lead and a second lead of adjacent cells overlap with each other are located at a cartridge sidewall with a predetermined pattern, the first lead and the second lead having opposite polarities and being bent in opposite directions, the first lead and the second lead each extending and being bent from a side of each cell; and a sensing housing having a plurality of bus bars located and welded corresponding to the lead welding portions, respectively, the sensing housing including a battery management system (BMS) circuit board configured to manage voltage and/or temperature data of each cell detected by each bus bar, the sensing housing being arranged at the sidewall of the cartridge assembly, wherein the sensing housing is coupled to the cartridge assembly, and the second lead is located between the first lead and the bus bar , the first lead facing the sidewall of the cartridge and the second lead facing the first lead, the bus bar being positioned outside from the second lead and being welded at one point to the first lead and to the second lead, wherein each of the first lead and second lead of each cell is bent at a right angle at 0.8 to 1.2 mm from a lead insulation portion of each of the first lead and second lead, the lead insulation portion being accommodated in the corresponding cartridge .
A vulcanizable rubber composition comprising: (A) 100 parts by weight of elastomer consisting of 70 to 100 parts by weight, per 100 parts by weight of the elastomer (phr), of an isoprene-butadiene rubber having a Tg in a range of from -100 °C to -50 °C, and 0 to 30 phr of a second elastomer selected from the group consisting of isoprene-butadiene rubber having a Tg in a range of from from -49 to -20 °C, natural rubber, synthetic polyisoprene, and polybutadiene; (B) from 30 to 80 phr of a resin having a Tg of at least 20 C; (C) from 0 to 4 phr of an oil; and (D) from 80 to 180 phr of a filler selected from the group consisting of carbon black and silica. (A) 100 parts by weight of elastomer consisting of 70 to 100 parts by weight, per 100 parts by weight of the elastomer (phr), of an isoprene-butadiene rubber having a Tg in a range of from -100 °C to -50 °C, and 0 to 30 phr of a second elastomer selected from the group consisting of isoprene-butadiene rubber having a Tg in a range of from from -49 to -20 °C, natural rubber, synthetic polyisoprene, and polybutadiene; (B) from 30 to 80 phr of a resin having a Tg of at least 20 C; (C) from 0 to 4 phr of an oil; and (D) from 80 to 180 phr of a filler selected from the group consisting of carbon black and silica.
An apparatus configured to volatilize components of smokable material for inhalation, the apparatus comprising: a housing comprising a smokable material heating chamber ; and a disposable cartridge containing the smokable material , wherein the disposable cartridge can be inserted into and removed from the smokable material heating chamber via an opening in the housing; and a heating material which is configured to be heated by the presence of a varying magnetic field, wherein the heating material is within the smokable material in the disposable cartridge and is arranged to transfer heat energy to the smokable material to volatilize said components for inhalation by a user, wherein the heating material comprises a plurality of pieces of heating material dispersed within the smokable material , characterised in that each of the plurality of pieces of heating material is surrounded by a layer of base material, wherein the base material is configured to retain heat energy received from the heating material and to transfer the energy to the smokable material . a housing comprising a smokable material heating chamber ; and a disposable cartridge containing the smokable material , wherein the disposable cartridge can be inserted into and removed from the smokable material heating chamber via an opening in the housing; and a heating material which is configured to be heated by the presence of a varying magnetic field, wherein the heating material is within the smokable material in the disposable cartridge and is arranged to transfer heat energy to the smokable material to volatilize said components for inhalation by a user, wherein the heating material comprises a plurality of pieces of heating material dispersed within the smokable material , characterised in that each of the plurality of pieces of heating material is surrounded by a layer of base material, wherein the base material is configured to retain heat energy received from the heating material and to transfer the energy to the smokable material .
A catheter drainage member configured to be attached to a catheter tube , the drainage member comprising: a body having an inner surface that includes a tapered portion ; characterized in : a non-symmetrical well defined by the tapered portion of the inner surface of the body , the non-symmetrical well extending from a shoulder to an end wall of the body and having a wider side and a narrower side , the non-symmetrical well configured to receive a distal end of a catheter tube and an adhesive ; and wherein the non-symmetrical well is configured to selectively distribute the adhesive between the inner surface and the catheter tube . a non-symmetrical well defined by the tapered portion of the inner surface of the body , the non-symmetrical well extending from a shoulder to an end wall of the body and having a wider side and a narrower side , the non-symmetrical well configured to receive a distal end of a catheter tube and an adhesive ; and wherein the non-symmetrical well is configured to selectively distribute the adhesive between the inner surface and the catheter tube .
A device (20; 30; 40; 50) comprising: an at least partially transparent screen ; an optical sensor ; and between the sensor and the screen, at least one rigid element (32; 33; 34; 35) is arranged between microlenses of the optical sensor , said at least on rigid element forming a support element between the screen and the optical sensor . an at least partially transparent screen ; an optical sensor ; and between the sensor and the screen, at least one rigid element (32; 33; 34; 35) is arranged between microlenses of the optical sensor , said at least on rigid element forming a support element between the screen and the optical sensor .
An oral composition comprising an orally-acceptable carrier and a silica abrasive consisting essentially of a silica compound having an average particle size of from 5 μm to 20 μm and an Einlehner hardness of from 6 to 9, wherein Einlehner hardness is measured per 174,000 revolutions in 120 minutes with a Brass screen and is of a slurry of 100g silica abrasive in 1L water, wherein the silica abrasive has an oil absorption of from 80cc/100g to 100cc/100g and a d 10 of from 2.5 μm to 2.9 μm; and wherein a 20% aqueous slurry of the silica abrasive has a pellicle cleaning ratio of from 76 to 92, wherein the 20% aqueous slurry of the silica has a radioactive dentin abrasion of from 85 to 101 and a PCR/RDA ratio of from 0.8 to 1.0.
An apparatus comprising: circuitry configured to acquire information indicating a result of detection of a communication node managed by a second frequency usage control system; notify the second frequency usage control system of first shareable information generated from first frequency usage information related to a first communication node managed by a first frequency usage control system; wherein the first shareable information is held by a first database included in the first frequency usage control system; characterised in that the circuitry is further configured to: notify the second frequency usage control system of a discovery signal based on a request signal from the first frequency usage control system; and notify the first frequency usage control system of information indicating a result of detection of a neighboring node around the first communication node, which is detected by the second frequency usage control system. circuitry configured to acquire information indicating a result of detection of a communication node managed by a second frequency usage control system; notify the second frequency usage control system of first shareable information generated from first frequency usage information related to a first communication node managed by a first frequency usage control system; wherein the first shareable information is held by a first database included in the first frequency usage control system; characterised in that the circuitry is further configured to: notify the second frequency usage control system of a discovery signal based on a request signal from the first frequency usage control system; and notify the first frequency usage control system of information indicating a result of detection of a neighboring node around the first communication node, which is detected by the second frequency usage control system. notify the second frequency usage control system of a discovery signal based on a request signal from the first frequency usage control system; and notify the first frequency usage control system of information indicating a result of detection of a neighboring node around the first communication node, which is detected by the second frequency usage control system.
A cleaning drone based on a multi-copter flying platform comprising a plurality of sustentation rotors (1.5), a cleaning device (1.11) protruding from a main body (1.1) of the drone and a plurality of pusher propellers (1.9) protruding from the main body of the done in a position being opposite to the protruding cleaning device, these pusher propellers being aligned at a substantially orthogonal angle in respect to the sustentation rotors in order to provide a pushing force for the cleaning device to act upon the surface to be cleaned, the cleaning drone further comprising a communications system, allowing it to receive commands and to send back responses to a remote controller, a geographical positioning system, allowing it to execute translation operations based on a known position, and a visual recognition system, allowing it to recognise visual features on the surface to be cleaned or on its immediate surroundings, wherein the sustentation rotors and pusher propellers are driven by electric motors (1.4,1.8) which are fed by at least one electricity source .
A method of heat treating a high pressure die cast aluminum alloy object, the method comprising: obtaining a high pressure die cast aluminum alloy object, solution heat treating the high pressure die cast aluminum alloy object so that the step of solution heat treating eliminates blistering defects on the high pressure die cast object, and quenching the high pressure die cast aluminum alloy object after said solution heat treating, characterized in that the solution heat treating is effected in a solution heat treatment vessel at a temperature above 371°C (700°F) while applying pressure between 172 bar and 690 bar (2.5 KSI and 10 KSI) for 2 to 8 hours, and quenching is effected after removing the die cast object from the solution heat treatment vessel.
A fluid flow arrangement, comprising: a manifold defining a fluid passage; a pressure sensor system in fluid communication with the fluid passage, the pressure sensor system having a first sensor arranged along a first sense line and a second sensor arranged along a second sense line , the first and second sense lines in fluid communication with the fluid passage, the first sense line having a first resonant frequency, and the second sense line having a second resonant frequency, characterized by the second resonant frequency being different than the first resonant frequency. a manifold defining a fluid passage; a pressure sensor system in fluid communication with the fluid passage, the pressure sensor system having a first sensor arranged along a first sense line and a second sensor arranged along a second sense line , the first and second sense lines in fluid communication with the fluid passage, the first sense line having a first resonant frequency, and the second sense line having a second resonant frequency, characterized by the second resonant frequency being different than the first resonant frequency.
A method of displaying a predicted state of operation of a medical fluid handling apparatus, the method comprising: receiving , continuously or repeatedly during operation of the medical fluid handling apparatus, a sensor signal from a sensor of the medical fluid handling apparatus; filtering the sensor signal by an adaptive filter such that a predicted signal is achieved, wherein the predicted signal is a predicted error signal indicating a deviation between a measured amount of fluid and a prescribed amount of fluid; and determining a predicted state of operation of the medical fluid handling apparatus from the predicted signal, wherein the predicted state is one of at least two non-critical states in which no alarm is activated and a critical state in which an alarm is activated, and one of the at least two non-critical states is closer to the critical state than another of the at least two non-critical states; and the method comprises displaying an indication of the predicted state of the medical fluid handling apparatus through a user interface of the medical fluid handling apparatus based on the predicted state, wherein the displaying allows an operator of the medical fluid handling apparatus to take action, if found necessary from the indication, such that the critical state of the medical fluid handling apparatus, and the alarm, is avoided. receiving , continuously or repeatedly during operation of the medical fluid handling apparatus, a sensor signal from a sensor of the medical fluid handling apparatus; filtering the sensor signal by an adaptive filter such that a predicted signal is achieved, wherein the predicted signal is a predicted error signal indicating a deviation between a measured amount of fluid and a prescribed amount of fluid; and determining a predicted state of operation of the medical fluid handling apparatus from the predicted signal, wherein the predicted state is one of at least two non-critical states in which no alarm is activated and a critical state in which an alarm is activated, and one of the at least two non-critical states is closer to the critical state than another of the at least two non-critical states; and the method comprises displaying an indication of the predicted state of the medical fluid handling apparatus through a user interface of the medical fluid handling apparatus based on the predicted state, wherein the displaying allows an operator of the medical fluid handling apparatus to take action, if found necessary from the indication, such that the critical state of the medical fluid handling apparatus, and the alarm, is avoided.
A vacuum cleaner comprising: a cyclone dust collector including: a case in which dust is separated from air and collected; a grill assembly separably mountable on the case; characterized in that the vacuum cleaner comprises a cleaning portion comprising a surface formed integrally with the case the surface being configured to contact a surface of the grill assembly such that the cleaning portion removes dust from the surface of the grill assembly during a process of separating the grill assembly from the case. a case in which dust is separated from air and collected; a grill assembly separably mountable on the case; characterized in that the vacuum cleaner comprises a cleaning portion comprising a surface formed integrally with the case the surface being configured to contact a surface of the grill assembly such that the cleaning portion removes dust from the surface of the grill assembly during a process of separating the grill assembly from the case.