mhurhangee/ep-ind-claims huggingface dataset:
A method of improving leak tightness in a seal between a frame of a filter element and a mounting structure against which the frame of filter element is mounted, comprising applying a pressure to an intermediate gasket space of one or more sealing arrangements by means of a pressure source, said one or more sealing arrangements comprising a gasket arranged to seal a gap formed between a first element and a second element, wherein the gasket is arranged to be located in the gap and to be in contact with the first and the second elements (3,4), the first element being comprised in the frame of the filter element and the second element is comprised in the mounting structure against which the frame of filter element is mounted, and in that the gasket comprises two elongated gasket members (6,7) located on a distance from each other so as to form an intermediate gasket space confined by the gasket members (6,7) and said first and second elements (3,4), the sealing arrangement further comprising a pressure source adapted to apply a pressure on the intermediate gasket space, said pressure source being configured to maintain a set pressure difference towards the surroundings, wherein the sealing arrangement further comprises an control sensor located between the pressure source and the surroundings, said control sensor being configured to communicate with an evaluation device, wherein the method comprises continuously applying pressure to the intermediate gasket space by means of the pressure source and obtaining a control value from a control sensor; and, if said control value from the control sensor deviates from a control setpoint value, establishing that the pressure source is not operating.
A secondary battery comprising: a case; a cap plate coupled to the case; at least one electrode assembly accommodated in the case, the electrode assembly comprising a positive electrode plate, a negative electrode plate, and a separator located between the positive and negative electrode plates; an electrode collector electrically connected to the electrode assembly; an electrode terminal connected to the electrode collector and protruding outward from the cap plate; a gasket surrounding the electrode terminal; and wherein the electrode collector comprises at least a bent portion, wherein the battery further comprises a reinforcement part coupled to the gasket such that at least a portion of the electrode collector is located between the reinforcement part and the gasket, the reinforcement part is formed to be molded to include the bent portion, characterised in that at least one first opening is formed in the gasket, at least one hook is formed on the reinforcement part, and the hook is configured to penetrate the first opening and to be coupled to the gasket. a case; a cap plate coupled to the case; at least one electrode assembly accommodated in the case, the electrode assembly comprising a positive electrode plate, a negative electrode plate, and a separator located between the positive and negative electrode plates; an electrode collector electrically connected to the electrode assembly; an electrode terminal connected to the electrode collector and protruding outward from the cap plate; a gasket surrounding the electrode terminal; and wherein the electrode collector comprises at least a bent portion, wherein the battery further comprises a reinforcement part coupled to the gasket such that at least a portion of the electrode collector is located between the reinforcement part and the gasket, the reinforcement part is formed to be molded to include the bent portion, characterised in that at least one first opening is formed in the gasket, at least one hook is formed on the reinforcement part, and the hook is configured to penetrate the first opening and to be coupled to the gasket.
A method for configuring downlink control information, performed by a base station, comprising: configuring an uplink scheduling Downlink Control Information, DCI, and a downlink scheduling DCI of multi-Transmission Block, TB, transmission to have the same number of bits; wherein the method further comprises: determining a configuring manner for configuring the uplink scheduling DCI and the downlink scheduling DCI to have the same number of bits; wherein configuring the uplink scheduling DCI and the downlink scheduling DCI of the multi-TB transmission to have the same number of bits comprises: according to the configuring manner, configuring the uplink scheduling DCI and the downlink scheduling DCI of the multi-TB transmission to have the same number of bits; and being characterized in that, according to the configuring manner, configuring the uplink scheduling DCI and the downlink scheduling DCI of the multi-TB transmission to have the same number of bits comprises: adding m bits having a preset value at predetermined positions to a shorter one having the smaller number of bits and selected from a configured uplink scheduling DCI and a configured downlink scheduling DCI, such that the number of bits of the uplink scheduling DCI is the same as the number of bits of the downlink scheduling DCI. configuring an uplink scheduling Downlink Control Information, DCI, and a downlink scheduling DCI of multi-Transmission Block, TB, transmission to have the same number of bits; wherein the method further comprises: determining a configuring manner for configuring the uplink scheduling DCI and the downlink scheduling DCI to have the same number of bits; wherein configuring the uplink scheduling DCI and the downlink scheduling DCI of the multi-TB transmission to have the same number of bits comprises: according to the configuring manner, configuring the uplink scheduling DCI and the downlink scheduling DCI of the multi-TB transmission to have the same number of bits; and being characterized in that, according to the configuring manner, configuring the uplink scheduling DCI and the downlink scheduling DCI of the multi-TB transmission to have the same number of bits comprises: adding m bits having a preset value at predetermined positions to a shorter one having the smaller number of bits and selected from a configured uplink scheduling DCI and a configured downlink scheduling DCI, such that the number of bits of the uplink scheduling DCI is the same as the number of bits of the downlink scheduling DCI.
Pharmaceutical composition in the form of an oral drinkable suspension in a sachet, comprising as active ingredient diosmin, and optionally flavonoid compounds, and as excipient xanthan gum.
A method for reporting buffer status, comprising: obtaining, by a user equipment, UE, multiple Transport Blocks, TBs, from a base station within one Transmission Time Interval, TTI; selecting, by the UE, a TB compliant with a condition of transmitting a Buffer Status Report among the multiple TBs; bearing, by the UE, a BSR of a Logical Channel Group, LCG, and a Control Element, CE, sub-header of the BSR onto the selected TB; and sending, by the UE, the selected TB to the base station; wherein the condition is: padding bits of a single TB are capable of accommodating BSRs of one or more LCGs and the CE sub-headers of the BSRs, but are incapable of accommodating the BSRs of all LCGs and the CE sub-headers of the BSRs. obtaining, by a user equipment, UE, multiple Transport Blocks, TBs, from a base station within one Transmission Time Interval, TTI; selecting, by the UE, a TB compliant with a condition of transmitting a Buffer Status Report among the multiple TBs; bearing, by the UE, a BSR of a Logical Channel Group, LCG, and a Control Element, CE, sub-header of the BSR onto the selected TB; and sending, by the UE, the selected TB to the base station; wherein the condition is: padding bits of a single TB are capable of accommodating BSRs of one or more LCGs and the CE sub-headers of the BSRs, but are incapable of accommodating the BSRs of all LCGs and the CE sub-headers of the BSRs.
A non-transitory computer readable medium having processor-executable instructions embodied therein, wherein execution of the instructions by a processor causes the processor to implement a method, the method comprising: a) requesting display capability information of an output device, the display capability information comprising information on display capabilities of the output device and information indicating whether the output device is in a horizontal or vertical orientation relative to a user; b) receiving the display capability information of the output device; c) formatting two or more data streams of content data configured for display on the output device based on the display capability information such that the content data is formatted in a manner consistent with the display capabilities of the output device and formatted for either the horizontal or vertical orientation of the output device indicated by the display capability information, wherein the two or more data streams include a data stream for user interface data and a separate data stream for video data, wherein the user interface data and the video data are scaled separately; and d) delivering the two or more data streams of content data to the output device via a network connection, wherein the data streams are delivered by a server to a client device platform used in combination with the output device. a) requesting display capability information of an output device, the display capability information comprising information on display capabilities of the output device and information indicating whether the output device is in a horizontal or vertical orientation relative to a user; b) receiving the display capability information of the output device; c) formatting two or more data streams of content data configured for display on the output device based on the display capability information such that the content data is formatted in a manner consistent with the display capabilities of the output device and formatted for either the horizontal or vertical orientation of the output device indicated by the display capability information, wherein the two or more data streams include a data stream for user interface data and a separate data stream for video data, wherein the user interface data and the video data are scaled separately; and d) delivering the two or more data streams of content data to the output device via a network connection, wherein the data streams are delivered by a server to a client device platform used in combination with the output device.
A method for estimating ego motion of an object moving on a surface, the method comprising: (a) generating at least two consecutive top view images of the surface on the basis of video frames provided by at least one onboard video camera of said object moving on said surface; (b) performing a region matching between the consecutive top view images to extract global motion parameters of said moving object; (c) calculating the ego motion of said moving object from the extracted global motion parameters of said moving object, wherein the extracted global motion parameters of said moving object comprise a translation and a rotation of the moving object and wherein a motion of a feature on a top view image is decomposed into a sum of a global translation vector estimated from a large top view region and a local translation vector estimated from a small region around the respective feature. (a) generating at least two consecutive top view images of the surface on the basis of video frames provided by at least one onboard video camera of said object moving on said surface; (b) performing a region matching between the consecutive top view images to extract global motion parameters of said moving object; (c) calculating the ego motion of said moving object from the extracted global motion parameters of said moving object,
A shear web for a wind turbine rotor blade, wherein the shear web has a lightning conductor, characterized in that the lightning conductor has an electrically conductive foam.
A powder metal material comprising: pre-alloyed iron-based powder including a predominately pearlitic structure, admixed graphite present in an amount of 0.25 to 1.50% by weight of said powder metal material, said admixed graphite consisting of particles having a U.S. standard sieve designation finer than 200 mesh (∼0.075mm) present in an amount greater than 90.0% by weight of said admixed graphite; and said pre-alloyed iron-based powder including carbon present in an amount of 0.25 to 1.50% by weight of said pre-alloyed iron-based powder such that upon sintering of the powder metal material at least 50% of the admixed graphite is retainable as free graphite. pre-alloyed iron-based powder including a predominately pearlitic structure, admixed graphite present in an amount of 0.25 to 1.50% by weight of said powder metal material, said admixed graphite consisting of particles having a U.S. standard sieve designation finer than 200 mesh (∼0.075mm) present in an amount greater than 90.0% by weight of said admixed graphite; and said pre-alloyed iron-based powder including carbon present in an amount of 0.25 to 1.50% by weight of said pre-alloyed iron-based powder such that upon sintering of the powder metal material at least 50% of the admixed graphite is retainable as free graphite.
An implantable leadless pacemaker comprising: a cell, wherein the cell is an energy storage compartment having an exterior hermetic wall; and a radio-opaque marker integrated into the cell, characterized in that the radio-opaque marker is shaped to indicate the rotation of the implantable leadless pacemaker when scanned by X-ray radiation and is disposed between an interior side of the cell hermetic wall and an anode of the cell. a cell, wherein the cell is an energy storage compartment having an exterior hermetic wall; and a radio-opaque marker integrated into the cell, characterized in that the radio-opaque marker is shaped to indicate the rotation of the implantable leadless pacemaker when scanned by X-ray radiation and is disposed between an interior side of the cell hermetic wall and an anode of the cell.
Room cell arrangement comprising several room cells (11; 11.1, 11.2, 11.3, 11.4), of which at least one upper room cell 11.2, 11.4) is arranged on at least one lower room cell (11.1, 11.3), wherein the room cells (11; 11.1, 11.2, 11.3, 11.4) are each cuboid and each comprise eight cuboid corner connecting hollow bodies (20; 20.1, 20.2) each forming a space corner, and wherein at least two or four upper corner connecting hollow bodies (20; 20.1, 20.2) of the eight corner connecting hollow bodies (20; 20.1, 20.2) of the lower room cell (11.1, 11.3) are each firmly but releasably connected with a lower corner connecting hollow body (20; 20.1, 20.2) of the four lower corner connecting hollow bodies (20; 20.1, 20.2) of the eight corner connecting hollow bodies (20; 20.1, 20.2) of the upper room cell (11.2, 11.4) by means of a vertical connecting means are, and wherein each cuboid corner connecting hollow body (20; 20.1, 20.2) has a cavity for receiving connector parts and in a first outer wall part (37.1) has at least one first opening (38.1) opening into the cavity, and wherein each vertical connecting means is arranged completely inside, i.e. completely within a space occupied by the respective upper corner connection hollow body (20; 20.1, 20.2) and by the respectively assigned lower corner connection hollow body (20; 20.1, 20.2), characterized in that each vertical connecting means comprises a releasable wedge located in a wedge clamping position, by means of which the respective upper corner connecting hollow body (20; 20.1, 20.2) of the lower room cell (11.1, 11.3) and the respectively assigned lower corner connection hollow body (20; 20.1, 20.2) of the upper room cell (11.2, 11.4) are vertically, releasably braced against each other each with the formation of an internal clamping connection.
A hydroxyphenyl or alkoxyphenyl phosphine oxide composition comprising: (i) from 10 to 50 wt % of a first mixture of mono-(hydroxyphenyl) or (alkoxyphenyl) phosphine oxide isomers each having the formula: (ii) from 30 to 60 wt % of a second mixture of bis-(hydroxyphenyl) or (alkoxyphenyl) phosphine oxide isomers each having the formula: (iii) from 10 to 50 wt % of a third mixture of tris-(hydroxyphenyl) or (alkoxyphenyl) phosphine oxide isomers each having the formula: iv) 0 to 10 wt % of triphenyl phosphine oxides of the formula IV: wherein R is hydrogen or an alkyl group containing from 1 to 6 carbon atoms, R 1 and R 2 are the same or different and each is an alkyl group containing from 1 to 6 carbon atoms, each of x and y is an integer between 0 and 4, and each OR group is in the ortho or para position with respect to the bond between the P atom and the associated phenyl group such that, for each mixture (i), (ii) and (iii), the ratio of the number of OR groups in the ortho -position with respect to the bond between the P atom and the associated phenyl group to the number of OR groups in the para -position with respect to the bond between the P atom and the associated phenyl group is from 10:90 to 2:98. (i) from 10 to 50 wt % of a first mixture of mono-(hydroxyphenyl) or (alkoxyphenyl) phosphine oxide isomers each having the formula: (ii) from 30 to 60 wt % of a second mixture of bis-(hydroxyphenyl) or (alkoxyphenyl) phosphine oxide isomers each having the formula: (iii) from 10 to 50 wt % of a third mixture of tris-(hydroxyphenyl) or (alkoxyphenyl) phosphine oxide isomers each having the formula: iv) 0 to 10 wt % of triphenyl phosphine oxides of the formula IV: wherein R is hydrogen or an alkyl group containing from 1 to 6 carbon atoms, R 1 and R 2 are the same or different and each is an alkyl group containing from 1 to 6 carbon atoms, each of x and y is an integer between 0 and 4, and each OR group is in the ortho or para position with respect to the bond between the P atom and the associated phenyl group such that, for each mixture (i), (ii) and (iii), the ratio of the number of OR groups in the ortho -position with respect to the bond between the P atom and the associated phenyl group to the number of OR groups in the para -position with respect to the bond between the P atom and the associated phenyl group is from 10:90 to 2:98.
Device for dissociating an aqueous phase to produce gaseous hydrogen, said device comprising: - a first zone comprising said aqueous phase, - a means of capturing electrons, - a means of reducing protons, and - an electrical energy source arranged to apply an electric energy potential between said electron capture means and said proton reduction means to produce, via an oxidation reaction of said aqueous phase at said electron capture means, gaseous oxygen, electrons and protons, said proton reduction means being arranged to carry out a reduction reaction of said protons by said electrons in order to produce gaseous hydrogen and being a proton exchange interface constituting a separation between said first zone comprising said aqueous phase and a second non-aqueous zone, said separation being a separation not allowing said aqueous phase to pass but allowing protons to pass to said second non-aqueous zone, said proton exchange interface exhibiting: - a front face located in said first zone comprising said aqueous phase and facing towards said electron capture means, and - a back face located in said second non-aqueous zone and comprising at least one catalyst and/or at least one catalytic system, said device being characterised in that said at least one catalyst and/or said at least one catalytic system comprises enzymes of the hydrogenase type. - a first zone comprising said aqueous phase, - a means of capturing electrons, - a means of reducing protons, and - an electrical energy source arranged to apply an electric energy potential between said electron capture means and said proton reduction means to produce, via an oxidation reaction of said aqueous phase at said electron capture means, gaseous oxygen, electrons and protons, - a front face located in said first zone comprising said aqueous phase and facing towards said electron capture means, and - a back face located in said second non-aqueous zone and comprising at least one catalyst and/or at least one catalytic system,
Operating method for an induction cooktop, wherein the cooktop includes a plurality of induction cooking areas (14a-14d) each with a pot detection device together with a pot detection function, and wherein a power transmission from the cooking area to a placed-on pot for heating the latter is detected, wherein an induction cooking area (14a-14d) better matched to the placed-on pot having a power transmission that is closer to its maximum possible power transmission into said pot is determined based on the power transmission determined for the current cooking area, and said cooking area is displayed to an operator in the display as an invitation to change the cooking area for the pot, characterized in that in a display the power currently transmitted from the cooking area to the pot is indicated in relation to a maximum possible power transmission on said cooking area in relative or absolute values as a feed-back to an operator, wherein this is produced in case that an excessively large or excessively small cooking area was selected for said pot.
An air management device comprising: a housing having a primary space and a secondary space (22, 24) adjacent to the primary space, the housing having discharge ports (15'-1, 15'-2, 15'-3) facing a front of the housing and an inlet at a lower section of the housing, wherein the primary space and the secondary space (22, 24) are arranged horizontally side-by-side, the discharge ports (15'-1, 15'-2, 15'-3) are provided in the primary space, and the housing includes a top plate providing a flat planar top surface of the housing; a plurality of impellers (131, 131', 131") configured to create air flow from the inlet and through the primary space; a heat exchanger provided in the housing and between the inlet and the discharge ports (15'-1, 15'-2, 15'-3); an impeller guide having a plurality of spaces to guide the air flow exhausted by the plurality of the impellers (131, 131', 131") to the discharge ports (15'-1, 15'-2, 15'-3) and a branch air flow passage to divert at least a portion of the air flow to the secondary space (22, 24); a vertical duct (208, 208') provided in the secondary space (22, 24) to create a vertical flow path for receiving the air flow diverted by the branch air flow passage; and a pop-up duct (234, 234') provided in the vertical duct (208, 208') such that the diverted air flow is vented through the pop-up duct (234, 234') when the pop-up duct (234, 234') protrudes above the top surface of the housing. a housing having a primary space and a secondary space (22, 24) adjacent to the primary space, the housing having discharge ports (15'-1, 15'-2, 15'-3) facing a front of the housing and an inlet at a lower section of the housing, wherein the primary space and the secondary space (22, 24) are arranged horizontally side-by-side, the discharge ports (15'-1, 15'-2, 15'-3) are provided in the primary space, and the housing includes a top plate providing a flat planar top surface of the housing; a plurality of impellers (131, 131', 131") configured to create air flow from the inlet and through the primary space; a heat exchanger provided in the housing and between the inlet and the discharge ports (15'-1, 15'-2, 15'-3); an impeller guide having a plurality of spaces to guide the air flow exhausted by the plurality of the impellers (131, 131', 131") to the discharge ports (15'-1, 15'-2, 15'-3) and a branch air flow passage to divert at least a portion of the air flow to the secondary space (22, 24); a vertical duct (208, 208') provided in the secondary space (22, 24) to create a vertical flow path for receiving the air flow diverted by the branch air flow passage; and a pop-up duct (234, 234') provided in the vertical duct (208, 208') such that the diverted air flow is vented through the pop-up duct (234, 234') when the pop-up duct (234, 234') protrudes above the top surface of the housing.