mhurhangee/ep-ind-claims huggingface dataset:
A method of knitting a warp knitted fabric comprising: performing single knitting using a front integrated jacquard bar and a rear integrated jacquard bar which are lined up and each of which has a full gauge by pairing two half-gauge jacquard bars, each having a half set of jacquard guides; characterized in that the method further comprises: displacing a jacquard guide by allowing a jacquard mechanism of a selected gauge position to act at a time of selected lapping, namely, either or both of overlapping and underlapping of a selected course during the single knitting. performing single knitting using a front integrated jacquard bar and a rear integrated jacquard bar which are lined up and each of which has a full gauge by pairing two half-gauge jacquard bars, each having a half set of jacquard guides; characterized in that the method further comprises: displacing a jacquard guide by allowing a jacquard mechanism of a selected gauge position to act at a time of selected lapping, namely, either or both of overlapping and underlapping of a selected course during the single knitting.
A method for use in a telecommunications system comprising the steps of: - determining the location of a station in said system, wherein different methods are available for determining the location of the station; - selecting a method for determining the location of the station in accordance with an accuracy class of a plurality of different accuracy classes; - providing information on said location of said station to a location service client; and characterised by: - defining an accuracy of the location information to be provided to the location service client in dependence on information relating to the location service client; wherein the station is a mobile station and the steps of the method are performed in the mobile station. - determining the location of a station in said system, wherein different methods are available for determining the location of the station; - selecting a method for determining the location of the station in accordance with an accuracy class of a plurality of different accuracy classes; - providing information on said location of said station to a location service client; and characterised by: - defining an accuracy of the location information to be provided to the location service client in dependence on information relating to the location service client; - defining an accuracy of the location information to be provided to the location service client in dependence on information relating to the location service client;
Automatic braking system for a hospital bed comprising a brake control assembly connected to at least one caster of the hospital bed by mechanical means, at least one caster having a caster brake, the brake control assembly operatively engageable to the caster brake for applying the caster brake, the brake control assembly comprising a sensor and a controller, the sensor connected to the controller for sensing a status condition of the caster brake, the controller connected to the brake control assembly and causing the brake control assembly to apply the caster brake characterized in that, the controller is configured to cause the brake control assembly to apply the caster brake, when the sensor senses the disengaged status condition of the caster brake, and when power is applied to the bed for a predetermined period of time.
Staple gun for driving staples into a workpiece, which gun comprises a frame, arranged in which is a driver, which can be conveyed in an up and downward movement and which in the downward movement executes a drive stroke, in which a staple is driven, and which can be conveyed by means of an activation member in the upward movement to a highest height (h), in which the activation member releases the driver for the execution of the drive stroke, and which driver is coupled to a first end of an elongated elastic member, which is tensioned when the driver is conveyed in the upward movement for execution of the drive stroke, and which is in engagement at a second end to a bearing pin arranged to the frame as well as a first breakpoint pin placed between the bearing pin and the driver at a first distance (a) from the bearing pin and around which the elastic member is bent and tensioned when the driver is conveyed in the upward movement, and a second breakpoint pin placed between the driver and the first breakpoint pin at a second distance (b) from the bearing pin and arranged so that it can be conveyed between a first position, in which it does not engage with the elastic member when this is conveyed by the driver in the upward movement, and a second position, in which it engages with the elastic member when the driver is conveyed in the upward movement and tensions the elastic member, characterised by that the first distance (a) at which the first breakpoint pin is placed from the bearing pin is related to the driver's highest height (h) as 1.6-2.0:1.
Artificial ventilation system (100, 200) comprising: - a respiratory helmet, - suction means (5, 25) which draw the air from the external environment, - a tank for containing pressurized oxygen, - a first control valve which regulates the mixing of air/oxygen, - a second control valve which regulates the flow rate of the air/oxygen mixture, - a plenum for containing the mixture of air and oxygen leaving the suction means, - a supply duct which allows the air/oxygen mixture to reach the respiratory helmet, - a first non-return valve which prevents the backflow of the air/oxygen mixture from the supply duct, - an exhaust duct for the air/CO2 mixture, - a filter element of the air/CO2 mixture in fluid communication with the plenum, and - a control unit to control at least oxygen saturation and carbon dioxide concentration inside the respiratory helmet; the artificial ventilation system (100, 200) being characterized in that: - the air/CO2 mixture flow rate in the exhaust duct is regulated by a third control valve, - the supply duct and the exhaust duct are integrated in a first casing which connects to a second casing inside the respiratory helmet, - wherein inside the first casing and the second casing the two flows remain separated by means of a separation septum, and - the second casing comprises a first plurality of holes which allows the air/oxygen mixture to flow inside the respiratory helmet and a second plurality of holes (17") for the entry of the exhausted CO2-rich air into the second casing. - a respiratory helmet, - suction means (5, 25) which draw the air from the external environment, - a tank for containing pressurized oxygen, - a first control valve which regulates the mixing of air/oxygen, - a second control valve which regulates the flow rate of the air/oxygen mixture, - a plenum for containing the mixture of air and oxygen leaving the suction means, - a supply duct which allows the air/oxygen mixture to reach the respiratory helmet, - a first non-return valve which prevents the backflow of the air/oxygen mixture from the supply duct, - an exhaust duct for the air/CO2 mixture, - a filter element of the air/CO2 mixture in fluid communication with the plenum, and - a control unit to control at least oxygen saturation and carbon dioxide concentration inside the respiratory helmet; - the air/CO2 mixture flow rate in the exhaust duct is regulated by a third control valve, - the supply duct and the exhaust duct are integrated in a first casing which connects to a second casing inside the respiratory helmet, - wherein inside the first casing and the second casing the two flows remain separated by means of a separation septum, and - the second casing comprises a first plurality of holes which allows the air/oxygen mixture to flow inside the respiratory helmet and a second plurality of holes (17") for the entry of the exhausted CO2-rich air into the second casing.
A bidirectional power switching circuit comprising: a bidirectional switch comprising first and second first-conductivity-type emitter/collector regions (1304; 1304B; 1404; 1504), each on opposing respective faces of a second-conductivity-type semiconductor mass, and first and second second-conductivity-type base contact regions, each on the same face of said semiconductor mass as, and adjacent to, said first and second emitter/collector regions (1304; 1304B; 1404; 1504) respectively, thereby forming respective emitter-base junctions on the opposing faces of said semiconductor mass; control circuitry; and a drive circuit which, when the control circuitry selects the bidirectional switch for turn-on, is configured to drive a selected one of said first and second base contact regions, to forward bias an associated emitter-base junction to thereby permit majority carriers to flow therefrom to the other emitter/collector region (1304; 1304B; 1404; 1504) on the opposing face of said semiconductor mass; wherein the drive circuit is configured to apply sufficient current to the selected base contact region to generate a nonequilibrium carrier concentration, in the interior of said semiconductor mass, which is more than thirty times as great as the off-state equilibrium majority carrier concentration in said semiconductor mass; and wherein the bidirectional power switching circuit further comprises oxide-filled trenches between each of said first and second emitter/collector regions (1304; 1304B; 1404; 1504) and the respective adjacent base contact regions. a bidirectional switch comprising first and second first-conductivity-type emitter/collector regions (1304; 1304B; 1404; 1504), each on opposing respective faces of a second-conductivity-type semiconductor mass, and first and second second-conductivity-type base contact regions, each on the same face of said semiconductor mass as, and adjacent to, said first and second emitter/collector regions (1304; 1304B; 1404; 1504) respectively, thereby forming respective emitter-base junctions on the opposing faces of said semiconductor mass; control circuitry; and a drive circuit which, when the control circuitry selects the bidirectional switch for turn-on, is configured to drive a selected one of said first and second base contact regions, to forward bias an associated emitter-base junction to thereby permit majority carriers to flow therefrom to the other emitter/collector region (1304; 1304B; 1404; 1504) on the opposing face of said semiconductor mass; wherein the drive circuit is configured to apply sufficient current to the selected base contact region to generate a nonequilibrium carrier concentration, in the interior of said semiconductor mass, which is more than thirty times as great as the off-state equilibrium majority carrier concentration in said semiconductor mass; and wherein the bidirectional power switching circuit further comprises oxide-filled trenches between each of said first and second emitter/collector regions (1304; 1304B; 1404; 1504) and the respective adjacent base contact regions.
A seal ring including: a base; an outer portion with a locking band configured to lock beneath an external engagement element of a container; and an inner seal configured to be biased into sealing engagement with an inner finish surface of the container, wherein said outer portion comprises a first portion extending away from said base in an axial direction and a second portion extending from an end of said first portion opposite said base in both a radially inward direction and an axial direction toward said base, said second portion comprising said locking band characterized in that said outer portion further comprises a foldable seam disposed between said first and second portions (42, 44) thereof configured to allow for the folding of said second portion. a base; an outer portion with a locking band configured to lock beneath an external engagement element of a container; and an inner seal configured to be biased into sealing engagement with an inner finish surface of the container, wherein said outer portion comprises a first portion extending away from said base in an axial direction and a second portion extending from an end of said first portion opposite said base in both a radially inward direction and an axial direction toward said base, said second portion comprising said locking band characterized in that said outer portion further comprises a foldable seam disposed between said first and second portions (42, 44) thereof configured to allow for the folding of said second portion.
Cyclone precipitator with a housing with an inlet and an outlet for a fluid, a vortex space between the inlet and the outlet inside the housing as well as guide means for generating a vortex sink stream in the vortext space, wherein the guide means are designed as a channel through which the stream of the fluid are guided into the vortex space, characterised in that an adjustable throttle element is arranged at the vortex space side end of the channel, which regulates the free opening cross-section of the channel depending on the flow volume of the fluid for realising a most constant flow speed possible.
A double-stranded oligo RNA structure comprising hydrophilic and hydrophobic material bound to a sense strand of the double-stranded oligo RNA, wherein the hydrophobic material is bound to 5' end of a sense strand of the double-stranded oligo RNA and the hydrophilic material is bound to 3' end thereof as shown in the following formula 4: A-X-5' S3' -Y-B pAS Formula 4 wherein A is a hydrophobic material, B is a hydrophilic material, X and Y are each a simple covalent bond or a linker-mediated covalent bond independently of each other, S is a sense strand of the double-stranded oligo RNA, and pAS is an antisense strand of the double-stranded oligo RNA, in which a phosphate group is bound to 5' end portion of the double-stranded oligo RNA.
Device for determining the fill level of a medium in a container, having at least one electronic device and at least one signal conductor arrangement, wherein the electronic device supplies the signal conductor arrangement with electromagnetic signals, wherein the electromagnetic signals are high frequency or microwave signals, wherein the signal conductor arrangement has a plurality of emitting devices for emitting the electromagnetic signals, wherein a flange-like support element at least partially carries the signal conductor arrangement, and wherein the support element can be inserted into a wall of the container, characterized in that the emitting devices are at least partially located on the side of the support element facing the medium in the installed state, and that the individual emitting devices produce a plurality of individual sensors which are each individually operated and, thus, also provide individual measured values.
A false tooth assembly for a stator core of a generator, wherein the stator core comprises a lamination comprising a tooth, wherein the lamination comprises a damaged area, wherein the damaged area comprises a cutout starting from a tip of the tooth and radially extending into the lamination, the damaged area having a tapered shape having a narrow opening at the tip and a wide opening as the damaged area radially extending deeper into the lamination, the false tooth assembly comprising: a plurality of tapered false tooth pieces (310, 320) comprising a first false tooth having a tapered shape and a second false tooth having a tapered shape, wherein the plurality of tapered false tooth pieces (310, 320) are configured to be assembled together to form the false tooth assembly, wherein the false tooth assembly comprises a tapered shape, and wherein the tapered shape of the false tooth assembly is configured to enable the false tooth assembly to fill the damaged area and to lock the false tooth assembly into the damaged area, and wherein the plurality of false tooth pieces (310, 320) are configured to be assembled together in the damaged area such that a wide end of the tapered false tooth assembly is disposed into the wide opening of the damaged area and a narrow end of the tapered false tooth assembly is flushed with the narrow opening of the damaged area at the tip of the tooth. a plurality of tapered false tooth pieces (310, 320) comprising a first false tooth having a tapered shape and a second false tooth having a tapered shape, wherein the plurality of tapered false tooth pieces (310, 320) are configured to be assembled together to form the false tooth assembly, wherein the false tooth assembly comprises a tapered shape, and wherein the tapered shape of the false tooth assembly is configured to enable the false tooth assembly to fill the damaged area and to lock the false tooth assembly into the damaged area, and wherein the plurality of false tooth pieces (310, 320) are configured to be assembled together in the damaged area such that a wide end of the tapered false tooth assembly is disposed into the wide opening of the damaged area and a narrow end of the tapered false tooth assembly is flushed with the narrow opening of the damaged area at the tip of the tooth.
A cathode active material including a lithium manganese oxide, in which the lithium manganese oxide has a spinel structure with specific constitutional composition represented by Formula 1 and has at least one selected from a cubic phase and a tetragonal phase, wherein a conductive material is applied to the surface of lithium manganese oxide particles as a coating material: Li 1+y M z Mn 2-y-z O 4-x-a Q x R a wherein 0≤x≤1; 0≤y≤0.3; 0≤z≤1; M is at least one or more element selected from a group consisting of Al, Mg, Ni, Co, Fe, Cr, V, Ti, Cu, B, Ca, Zn, Zr, Nb, Mo, Sr, Sb, W, Ti and Bi; Q is at least one or more element selected from a group consisting of N, F, S and Cl; R denotes a vacancy formed due to oxygen escaping from a crystal lattice; and 0≤a≤2.
A device for paw and after-relief cleaning of pets (cats or dogs), comprising - an outer body (1.1), - charger unit (1.2), - a motor (1.3), - clean water tank (1.4), - clean water pump (1.5), - filling plug (1.6), - clean water pipe (1.7), - horizontal brush (1.9), - an interior body (1.10), - pulverization heads (1.11), - on/off button (1.13), - rechargeable battery unit (1.14), - pulverization ring (1.16) and clean water piping (1.17) for pulverization heads in the pulverization ring, characterized in that it comprises; a vertical brush (1.8), the motor (1.3) is powered by the rechargeable battery unit (1.14) and allows rotating the interior body (1.10) and the vertical brushes (1.8) and horizontal brushes (1.9) fixed to the interior body (1.10); with vertical brushes (1.8) at the bottom and horizontal brushes (1.9) at sides, further comprising an apparatus (1.12), which is installed on the outer body (1.1) for after-relief cleaning and equipped with a split part (1.12.1) for inserting the base of the tail of the cat or dog and discharging the dirty water from the interior body (1.10) and a transmission gear (1.15), which transmits the motion from the motor (1.3) to the interior body (1.10). - an outer body (1.1), - charger unit (1.2), - a motor (1.3), - clean water tank (1.4), - clean water pump (1.5), - filling plug (1.6), - clean water pipe (1.7), - horizontal brush (1.9), - an interior body (1.10), - pulverization heads (1.11), - on/off button (1.13), - rechargeable battery unit (1.14), - pulverization ring (1.16) and clean water piping (1.17) for pulverization heads in the pulverization ring,
Door module for opening and/or closing a room (R1; R2; R3), with a door leaf and at least one hinge connected to it, as well as a closing element, whereby in door leaf there is at least one supply air duct and one discharge air duct and whereby a fan is provided in door leaf, whereby the supply air duct is separated in terms of fluidity from the discharge air duct and each, the supply air duct and the discharge air duct have at least one channel opening towards both sides of door leaf, wherein a discharge air zone with the discharge air duct is provided in the upper section and a supply air zone with the supply air duct is provided at least in form of ventilation slots in the lower section of door leaf of door module, and at least one fan is provided in the discharge air duct, characterized in that the supply air duct and the discharge air duct have in their inner part non-linear leading-through structures, so that the supply air duct as well as the discharge air duct have a shape with several corners.
A water reuse system comprising: a controller; a reservoir tank; a sensor for monitoring the quality of water in the reservoir tank, wherein the sensor communicates the water quality of the water in the reservoir tank to the controller; a reservoir water transfer pump for transferring rinse water to the reservoir tank; a reservoir tank fresh-water filling system used to add fresh water into the reservoir tank; a drain water diverter valve; and a drain water pump for returning the rinse water to a wash tank of a wash machine; characterized in the drain water diverter valve is located upstream of the drain water pump and downstream of an outlet valve of the wash machine for directing water from the outlet valve through the drain water pump into the reservoir tank and the drain water diverter valve is controlled by the controller; one or more level sensors, wherein the level sensor communicates the water level of the reservoir tank to the controller; wherein the water reuse system is in fluid communication with the wash tank of the wash machine, and wherein the wash machine comprises the wash tank, a dispenser, a hot water fill valve, a cold water fill valve, and the outlet valve. a controller; a reservoir tank; a sensor for monitoring the quality of water in the reservoir tank, wherein the sensor communicates the water quality of the water in the reservoir tank to the controller; a reservoir water transfer pump for transferring rinse water to the reservoir tank; a reservoir tank fresh-water filling system used to add fresh water into the reservoir tank; a drain water diverter valve; and a drain water pump for returning the rinse water to a wash tank of a wash machine; characterized in the drain water diverter valve is located upstream of the drain water pump and downstream of an outlet valve of the wash machine for directing water from the outlet valve through the drain water pump into the reservoir tank and the drain water diverter valve is controlled by the controller; one or more level sensors, wherein the level sensor communicates the water level of the reservoir tank to the controller; wherein the water reuse system is in fluid communication with the wash tank of the wash machine, and wherein the wash machine comprises the wash tank, a dispenser, a hot water fill valve, a cold water fill valve, and the outlet valve.
Method for selecting a, so-called network slice, set (TR1, TR2, TR3) of functions of a communications infrastructure, for the conveying of data relating to at least one application (App1, App2, App3, App4, App5) installed on a user terminal (51, 53) attached to said infrastructure, implemented by the terminal (51, 53) and comprising: - a step of sending, to a rules management entity (40, 60), a request message comprising at least one application identifier, - a step of receiving, from the rules management entity (40, 60), a response message comprising at least one rule allowing the terminal to determine the network slice (TR1, TR2, TR3) corresponding to the at least one identifier, - a step of selecting the network slice (TR1, TR2, TR3) as a function of the at least one rule obtained. - a step of sending, to a rules management entity (40, 60), a request message comprising at least one application identifier, - a step of receiving, from the rules management entity (40, 60), a response message comprising at least one rule allowing the terminal to determine the network slice (TR1, TR2, TR3) corresponding to the at least one identifier, - a step of selecting the network slice (TR1, TR2, TR3) as a function of the at least one rule obtained.