mhurhangee/ep-ind-claims huggingface dataset:
An electronic pen main body unit comprising: an ink writing unit comprising a pen core, a pen body configured to be impregnated with liquid ink, and an ink cartridge, wherein the cartridge housing liquid ink is fitted to a rear end portion of the pen core and the pen body is disposed so as to be superposed on the pen core in a direction orthogonal to a coupling direction of the pen core and the cartridge; and an interaction unit (13, 14) having an electronic part configured to exchange a signal with a tablet; characterised in that the interaction unit (13, 14) is disposed on a side of the pen core opposite the pen body in the direction orthogonal to the coupling direction of the pen core and the cartridge, the pen core is made of resin and is interposed between the interaction unit (13, 14) and the pen body, and the electronic part is separated from the pen body by the pen core. an ink writing unit comprising a pen core, a pen body configured to be impregnated with liquid ink, and an ink cartridge, wherein the cartridge housing liquid ink is fitted to a rear end portion of the pen core and the pen body is disposed so as to be superposed on the pen core in a direction orthogonal to a coupling direction of the pen core and the cartridge; and an interaction unit (13, 14) having an electronic part configured to exchange a signal with a tablet; characterised in that the interaction unit (13, 14) is disposed on a side of the pen core opposite the pen body in the direction orthogonal to the coupling direction of the pen core and the cartridge, the pen core is made of resin and is interposed between the interaction unit (13, 14) and the pen body, and the electronic part is separated from the pen body by the pen core.
A system for determining network device transiting data attributes, the system comprising: one or more memory devices storing instructions; and one or more processors configured to execute the instructions to: run a first script on all static ports 130) of a network, wherein the first script returns parameters for the static ports; run a second script on all known ports of the network, wherein the second script returns parameters for the known ports; parse the returned parameters for the static ports and the returned parameters for the known ports to identify one or more identified ports of the known ports; run a third script on the one or more identified ports, wherein the third script forces one or more denials on the one or more identified ports; and determine, based on the one or more denials, network device transiting data attributes comprising allowed protocols and directionality for each of the one or more identified ports. one or more memory devices storing instructions; and one or more processors configured to execute the instructions to: run a first script on all static ports 130) of a network, wherein the first script returns parameters for the static ports; run a second script on all known ports of the network, wherein the second script returns parameters for the known ports; parse the returned parameters for the static ports and the returned parameters for the known ports to identify one or more identified ports of the known ports; run a third script on the one or more identified ports, wherein the third script forces one or more denials on the one or more identified ports; and determine, based on the one or more denials, network device transiting data attributes comprising allowed protocols and directionality for each of the one or more identified ports. run a first script on all static ports 130) of a network, wherein the first script returns parameters for the static ports; run a second script on all known ports of the network, wherein the second script returns parameters for the known ports; parse the returned parameters for the static ports and the returned parameters for the known ports to identify one or more identified ports of the known ports; run a third script on the one or more identified ports, wherein the third script forces one or more denials on the one or more identified ports; and determine, based on the one or more denials, network device transiting data attributes comprising allowed protocols and directionality for each of the one or more identified ports.
A moving apparatus comprising: a sensing unit to obtain multiple state information generated by movements of the moving apparatus; a state determiner to determine whether or not an abnormal movement state is generated based on the multiple state information; and a position information calculator to correct the multiple state information when the abnormal movement state occurs, and to calculate final position information of the moving apparatus, characterized in that the apparatus further comprises an action controller to generate an action control signal based on the calculated final position information; and a driver to perform a movement action of the moving apparatus based on the generated action control signal wherein the multiple state information comprises acceleration information indicating acceleration components of three axes and gravity acceleration. a sensing unit to obtain multiple state information generated by movements of the moving apparatus; a state determiner to determine whether or not an abnormal movement state is generated based on the multiple state information; and a position information calculator to correct the multiple state information when the abnormal movement state occurs, and to calculate final position information of the moving apparatus, characterized in that the apparatus further comprises an action controller to generate an action control signal based on the calculated final position information; and a driver to perform a movement action of the moving apparatus based on the generated action control signal wherein the multiple state information comprises acceleration information indicating acceleration components of three axes and gravity acceleration.
A method for recording a trajectory of an individual particle in a sample starting from an at least approximately known initial position of the particle, comprising the repeatedly executed method steps: - scanning the particle with an intensity distribution of a scanning light comprising a local minimum at one or more scanning positions; - detecting a number of photons emitted from the particle as a result of the illumination with the scanning light at each of the scanning positions or a light intensity as a first measured variable; - determining updated coordinates of the particle from the photon number detected at the scanning positions or the detected light intensity and adding the updated coordinates to the trajectory, characterized in that during the recording of the trajectory a second measured variable is detected in the sample and the recording of the trajectory is interrupted or terminated if the second measured variable or a control value calculated from the second measured variable fulfills a termination criterion. - scanning the particle with an intensity distribution of a scanning light comprising a local minimum at one or more scanning positions; - detecting a number of photons emitted from the particle as a result of the illumination with the scanning light at each of the scanning positions or a light intensity as a first measured variable; - determining updated coordinates of the particle from the photon number detected at the scanning positions or the detected light intensity and adding the updated coordinates to the trajectory,
The use of an ionic liquid based on tertiary phosphine oxides selected from N -[4-( tert -butylphenylphosphinyl)]-n-butyl- N -methylimidazolium chloride, N -[4-(benzylphenylphosphinyl)]-n-butyl- N -methylimidazolium chloride, N -[4-(benzylphenylphosphinyl)]-n-butyl- N -methylimidazolium bis(trifluoromethylsulfonyl)imide and N -[4- tert -butylphenylphosphinyl]-n-butyl- N- methylimidazolium bis(trifluoromethylsulfonyl) imide as a herbicide.
A method of transmitting a channel state information CSI in a wireless access system supporting multiple cells, the method comprising: calculating a number of resource elements, Res, using a maximum bit size among a bit size of the CSI for a first cell and a bit size of the CSI for a second cell, when a timing of a periodic CSI report for the first cell and a timing of a periodic CSI report for the second cell collide with each other; adjusting the number of bits of the CSI having a higher priority between the CSI for the first cell and the CSI for the second cell to match the maximum bit size; and transmitting the bits of the CSI having the adjusted number of bits and the higher priority to a base station in a manner of mapping the bits of said CSI having the adjusted number of bits to the calculated resource elements. calculating a number of resource elements, Res, using a maximum bit size among a bit size of the CSI for a first cell and a bit size of the CSI for a second cell, when a timing of a periodic CSI report for the first cell and a timing of a periodic CSI report for the second cell collide with each other; adjusting the number of bits of the CSI having a higher priority between the CSI for the first cell and the CSI for the second cell to match the maximum bit size; and transmitting the bits of the CSI having the adjusted number of bits and the higher priority to a base station in a manner of mapping the bits of said CSI having the adjusted number of bits to the calculated resource elements.
Optical pumping magnetometer comprising a cell filled with a gas, a laser source emitting a laser beam, a polarisation module adapted to linearly polarise the laser beam and to rotate the polarisation such that the laser beam is polarised in a polarisation direction, a photodetector receiving the polarised laser beam after it has passed through the cell and outputting an electrical signal, first slaving means to keep a constant angle between the polarisation direction and a magnetic field to be measured, characterised in that it also includes modulation means (180,190) to intensity or frequency modulate at least a first part of the laser beam so as to generate a pump beam modulated by a modulation frequency ( f m) and second slaving means to keep said modulation frequency equal to the Larmor frequency of the gas or one of its harmonics, the second slaving means performing an amplitude detection on the peak of the DC line, the antisymmetric error signal being obtained by demodulation at a harmonic of a second modulation frequency ( f mod _ BF) superposed on the modulation frequency ( f m) the value of the magnetic field to be measured being obtained from said modulation frequency.
A reactor comprising: a reaction-side flow passage through which a reaction fluid as a reaction object flows; a heat-medium side flow passage through which a heat medium flows to heat or cool the reaction fluid in the reaction-side flow passage, the heat-medium side flow passage being provided in parallel with the reaction-side flow passage; a heat-transfer partition provided between the reaction-side flow passage and the heat-medium side flow passage; and a catalyst; characterised in that: the catalyst is provided with an active metal carried by a metal plate having a corrugated shape, configured to promote a reaction of the reaction fluid, the catalyst being separately provided in the reaction-side flow passage so that a contact area with the reaction fluid is larger on a downstream side than on an upstream side of a flowing direction of the reaction fluid in the reaction-side flow passage, wherein the catalyst is divided into a plurality of parts (140a, 140b) and arranged in a flowing direction of the reaction fluid in the reaction-side flow passage, and the plurality of parts (140a, 140b) of the catalyst are arranged away from each other. a reaction-side flow passage through which a reaction fluid as a reaction object flows; a heat-medium side flow passage through which a heat medium flows to heat or cool the reaction fluid in the reaction-side flow passage, the heat-medium side flow passage being provided in parallel with the reaction-side flow passage; a heat-transfer partition provided between the reaction-side flow passage and the heat-medium side flow passage; and a catalyst; characterised in that: the catalyst is provided with an active metal carried by a metal plate having a corrugated shape, configured to promote a reaction of the reaction fluid, the catalyst being separately provided in the reaction-side flow passage so that a contact area with the reaction fluid is larger on a downstream side than on an upstream side of a flowing direction of the reaction fluid in the reaction-side flow passage, wherein the catalyst is divided into a plurality of parts (140a, 140b) and arranged in a flowing direction of the reaction fluid in the reaction-side flow passage, and the plurality of parts (140a, 140b) of the catalyst are arranged away from each other. the catalyst is provided with an active metal carried by a metal plate having a corrugated shape, configured to promote a reaction of the reaction fluid, the catalyst being separately provided in the reaction-side flow passage so that a contact area with the reaction fluid is larger on a downstream side than on an upstream side of a flowing direction of the reaction fluid in the reaction-side flow passage, wherein the catalyst is divided into a plurality of parts (140a, 140b) and arranged in a flowing direction of the reaction fluid in the reaction-side flow passage, and the plurality of parts (140a, 140b) of the catalyst are arranged away from each other.
Method for fastening a component to a base element consisting in particular of metal or an alloy, in which a blind hole, defining a depth direction, with a force transfer surface of surface area A is created in the base element, said blind hole having a depth T in the depth direction where T < 10 mm, in particular T < 8 mm, in particular T < 6 mm, in particular T < 4 mm, wherein the force transfer surface is frustoconical with a half cone opening angle β of 0° to 20° and a mean diameter d, wherein the blind hole has a conical blind-hole bottom with a cone opening angle α of 88° to 138° or of 141°, in particular of 98° to 138°, and has, at its edge, a chamfer extending in the depth direction to a chamfer depth L of 0 mm to 2 mm, in particular 0 mm to 0.5 mm, wherein the mean diameter d of the force transfer surface is greater than or equal to the depth T and is at least d = 1 − k T − L tan α 2 and at most d = 1 + k T − L tan α 2 with a maximum surface tolerance k, wherein k = 0.3, in particular k = 0.2, in particular k = 0.1, wherein, in the method, a fastening element is anchored in the blind hole via the force transfer surface, and wherein the component is held by the fastening element.
A vehicle load carrier comprising a load carrying bar, the load carrying bar having a height, a width and a length, said load carrying bar comprising a channel having a width Wc, a height (Hc) and a length (Lc), said channel having a floor portion, first and second channel walls (3d, 3e), an opening and a cover arranged to seal at least a portion of said opening, said channel further comprising at least a first entrance (3b, 3c) for introducing a fastening member of a load carrying bar accessory, said vehicle load carrier further comprising at least a first end piece arranged to seal said first entrance (3b, 3c) of said channel, characterised in that said vehicle load carrier has a tapered lead-in portion at said first entrance (3b, 3c) to facilitate entry of said fastening member into said channel.
A bar valve comprising: an elongate housing having a first inlet located towards a first end of the housing, a second inlet located towards a second end of the housing, and an outlet (108a, 108b) located between the first inlet and the second inlet; a mixing chamber within the housing, the mixing chamber being configured to receive first and second input flows from the first inlet and second inlet, respectively; and a flow controller configured to receive a mixed flow from the mixing chamber and controllably output an outlet flow to the outlet (108a, 108b); the mixing chamber and flow controller being disposed sequentially in a region of the housing between the first end and the outlet (108a, 108b), thereby confining the mixed flow and the outlet flow to the region of the housing between the first end and the outlet (108a, 108b). an elongate housing having a first inlet located towards a first end of the housing, a second inlet located towards a second end of the housing, and an outlet (108a, 108b) located between the first inlet and the second inlet; a mixing chamber within the housing, the mixing chamber being configured to receive first and second input flows from the first inlet and second inlet, respectively; and a flow controller configured to receive a mixed flow from the mixing chamber and controllably output an outlet flow to the outlet (108a, 108b); the mixing chamber and flow controller being disposed sequentially in a region of the housing between the first end and the outlet (108a, 108b), thereby confining the mixed flow and the outlet flow to the region of the housing between the first end and the outlet (108a, 108b).
An apparatus for preparing food, said apparatus comprising: - a food preparation chamber having an outer wall, - an air heating system to circulate hot air inside the food preparation chamber, - a thermal fuse system to cut the electrical supply of said apparatus when the temperature of the thermal fuse system exceeds a given threshold, the thermal fuse system being attached to said outer wall outside the food preparation chamber, characterised in that it further comprises - air cooling system to circulate cool air on said outer wall outside the food preparation chamber, - a cover element placed at the proximity of said thermal fuse system to protect the thermal fuse system from the cool air. - a food preparation chamber having an outer wall, - an air heating system to circulate hot air inside the food preparation chamber, - a thermal fuse system to cut the electrical supply of said apparatus when the temperature of the thermal fuse system exceeds a given threshold, the thermal fuse system being attached to said outer wall outside the food preparation chamber, characterised in that it further comprises - air cooling system to circulate cool air on said outer wall outside the food preparation chamber, - a cover element placed at the proximity of said thermal fuse system to protect the thermal fuse system from the cool air.
A system for transporting fluid, including a first vessel and a second vessel, the system comprising: a split volume tank comprising a first volume and a second volume, wherein when one of the volumes expands the other volume simultaneously collapses; and a four way valve, the four way valve fluidly connecting the first and second volumes and first vessel and the second vessel, the four way valve comprising a plurality of passages including a first passage and a second passage, the four way valve being controllable between a plurality of orientations including: a first orientation in which the first passage fluidly connects the first volume and the first vessel and the second passage fluidly connects the second volume and the vacuum; a second orientation in which the first passage fluidly connects the first volume and the second vessel and the second passage fluidly connects the second volume and the first vessel. a split volume tank comprising a first volume and a second volume, wherein when one of the volumes expands the other volume simultaneously collapses; and a four way valve, the four way valve fluidly connecting the first and second volumes and first vessel and the second vessel, the four way valve comprising a plurality of passages including a first passage and a second passage, the four way valve being controllable between a plurality of orientations including: a first orientation in which the first passage fluidly connects the first volume and the first vessel and the second passage fluidly connects the second volume and the vacuum; a second orientation in which the first passage fluidly connects the first volume and the second vessel and the second passage fluidly connects the second volume and the first vessel. a first orientation in which the first passage fluidly connects the first volume and the first vessel and the second passage fluidly connects the second volume and the vacuum; a second orientation in which the first passage fluidly connects the first volume and the second vessel and the second passage fluidly connects the second volume and the first vessel.
A foam forming method comprising: a). preparing a foamable system comprising an A side comprising polyisocyanate and a B side comprising a polyol, a catalytically effective amount of an amine-containing catalyst, and at least one hydrohaloolefin, which is generally decomposition reactive with said amine-containing catalyst b). ensuring the substantial absence of long-term decomposition-inducing contact between said hydrohaloolefin and the amine-containing catalyst; wherein the at least one hydrohaloolefin is trans HFCO-1233zd and wherein the B side comprises not more than 0.75 wt% water. a). preparing a foamable system comprising an A side comprising polyisocyanate and a B side comprising a polyol, a catalytically effective amount of an amine-containing catalyst, and at least one hydrohaloolefin, which is generally decomposition reactive with said amine-containing catalyst b). ensuring the substantial absence of long-term decomposition-inducing contact between said hydrohaloolefin and the amine-containing catalyst;