mhurhangee/ep-ind-claims huggingface dataset:
An additive-manufacturing build-material container comprising a reservoir to hold build material; an outlet opening in a top portion of the reservoir; an outlet tube structure including a longitudinal collection tube to suck up build material at one end thereof, from a bottom region of the reservoir, upon application of a suction force at the other end thereof, and to guide the collected build material to the outlet opening at the top; and a vent opening in a top portion of the reservoir to admit gas from outside the reservoir into the reservoir to follow a gas flow path through the vent opening, through the reservoir and into said one end of the longitudinal collection tube; wherein on said gas flow path there is at least one turbulent-gas-flow-generation feature to generate turbulent gas flow in a region that is within the reservoir and outside the longitudinal collection tube, characterised in that wall portions of the reservoir are rigid and wall portions of the reservoir are flexible, wherein the portions that are flexible are arranged to flex when positive or negative pressure is applied.
A method for producing at least one optical filter layer segment on a substrate, comprising - preparing a resist layer masking on a surface of the substrate so that portions of the surface remain free; - depositing an optical filter layer on the resist layer and on the portions of the surface that remained free, by vacuum deposition; and - removing the resist layer with the optical filter layer thereon from the surface, while on the portions of the surface that remained free the optical filter layer remains, wherein the resist layer with the optical filter layer thereon is removed by causing the resist layer to swell, and wherein the removing of the resist layer by causing it to swell comprises treating the resist layer with an alkaline solution; wherein the deposition of the optical filter layer is performed at a temperature above 150 °C, preferably in a range from more than 150 °C up to 400 °C, at least temporarily. - preparing a resist layer masking on a surface of the substrate so that portions of the surface remain free; - depositing an optical filter layer on the resist layer and on the portions of the surface that remained free, by vacuum deposition; and - removing the resist layer with the optical filter layer thereon from the surface, while on the portions of the surface that remained free the optical filter layer remains, wherein the resist layer with the optical filter layer thereon is removed by causing the resist layer to swell, and wherein the removing of the resist layer by causing it to swell comprises treating the resist layer with an alkaline solution;
A door holding device comprising: a first arm assembly, wherein the first arm assembly includes a longitudinal part and a stationary part that form an L-shape; a second arm assembly; a pivot device that pivotally connects the first arm assembly to the second arm assembly; and a movable clamping mechanism slidably attached to the second arm assembly that clamps to a structure to secure the door holding device to the structure, characterised in that the longitudinal part includes a channel disposed on each side and a track having recesses defined therein, wherein the movable clamping mechanism includes a traveler that slides along the track, and wherein the traveler includes a quick release lever that engages the recesses to hold the traveler in a position along the track, and wherein the traveler further includes an extension part having an aperture defined therein and wherein the extension part e extends in a direction from the traveler where the stationary part and the extension part are substantially parallel to each other and form a U-shape with the longitudinal part. a first arm assembly, wherein the first arm assembly includes a longitudinal part and a stationary part that form an L-shape; a second arm assembly; a pivot device that pivotally connects the first arm assembly to the second arm assembly; and a movable clamping mechanism slidably attached to the second arm assembly that clamps to a structure to secure the door holding device to the structure, characterised in that the longitudinal part includes a channel disposed on each side and a track having recesses defined therein, wherein the movable clamping mechanism includes a traveler that slides along the track, and wherein the traveler includes a quick release lever that engages the recesses to hold the traveler in a position along the track, and
Optical detector for detecting an optical signal beam modulated in a way that it comprises an in-phase and/or a quadrature component, comprising: - a polarisation beam splitter (315a; 602) arranged to split the optical signal beam (301 a; 601; 701 a; 801) into two polarised optical signal beams (313a; 313b), - a non-polarisation beam splitter (307, 803) arranged to further split each of the two polarised optical signal beams into two split polarised optical signal beams, - at least one birefringent element (309; 310; 311; 401; 402; 501; 502; 503; 603a; 603b) providing a phase shift, the birefringent element being arranged in a path of at least one polarised optical signal beam (313a; 313b) and/or in a path of at least one split polarised optical signal beam so that an in-phase and quadrature phase offset between two split polarised optical signal beams originating from the same polarised optical signal beam (313a; 313b) is formed in output signal beams; and - at least two detection means (302a, 302b, 303a, 303b, 304a, 304b, 305a, 305b, 702a, 702b, 703a, 703b; 802a, 802b) arranged to receive at least one output signal beam that comprises a in-phase and/or quadrature component of the optical signal beam (301 a; 601; 701 a; 801) characterised in that - the detector further comprises reflectors (308a, 308b; 805a, 805b) arranged to reflect all the split polarised optical signal beams back towards the non-polarisation beam splitter (307, 803) where the split polarised optical signal beams interfere. - a polarisation beam splitter (315a; 602) arranged to split the optical signal beam (301 a; 601; 701 a; 801) into two polarised optical signal beams (313a; 313b), - a non-polarisation beam splitter (307, 803) arranged to further split each of the two polarised optical signal beams into two split polarised optical signal beams, - at least one birefringent element (309; 310; 311; 401; 402; 501; 502; 503; 603a; 603b) providing a phase shift, the birefringent element being arranged in a path of at least one polarised optical signal beam (313a; 313b) and/or in a path of at least one split polarised optical signal beam so that an in-phase and quadrature phase offset between two split polarised optical signal beams originating from the same polarised optical signal beam (313a; 313b) is formed in output signal beams; and - at least two detection means (302a, 302b, 303a, 303b, 304a, 304b, 305a, 305b, 702a, 702b, 703a, 703b; 802a, 802b) arranged to receive at least one output signal beam that comprises a in-phase and/or quadrature component of the optical signal beam (301 a; 601; 701 a; 801) - the detector further comprises reflectors (308a, 308b; 805a, 805b) arranged to reflect all the split polarised optical signal beams back towards the non-polarisation beam splitter (307, 803) where the split polarised optical signal beams interfere.
Method for managing the recharging of at least one battery, characterized in that it comprises the transmission of the need in a desired charge level C i for a battery i at a given instant T i of a user or of a vehicle to a recharging device such that the recharging enables the battery i to reach a charge level C(i) greater than or equal to the desired charge level C i at the given instant and in that it uses a number of electrical energy production sources j for the recharging of a battery and in that it comprises a minimization of the total cost for the recharging of the battery, by minimizing the sum ∑ j = 1 J ∫ 0 Ti Cost j t S j t dt, in which Cost(j,t) represents the cost of a unit of energy produced by a source j at an instant t and S(j, t) represents the quantity of energy produced by a source j for the recharging of the battery at an instant t, J being the number of energy sources.
Test cell (30, 50) for measuring the gas permeability of at least one sample of material or a stopper, comprising: - a substantially cylindrical processing dome (21, 32, 132) comprising a sealed circumferential wall, a first inlet hole and a first outlet hole, - a distribution plate which is gas-tight and which is capable of being assembled with the processing dome (21, 32, 132) in a sealed manner and which comprises at least one supply conduit which extends through the plate in order to open in the first inlet hole, - a monobloc sample holder (21, 33, 133) through which there extends a substantially cylindrical conduit which connects a second inlet hole and a second outlet hole, the sample holder being a separate component (33, 133) which is capable of being assembled with the dome (32, 132) in order to form a gas-tight space which connects the first inlet hole and the second outlet hole, - a gas-tight collection plate which is capable of being assembled with the sample holder (21, 33, 133) in a sealed manner, and comprising at least one collection conduit which extends through the plate in order to open in the second outlet hole, characterised in that the distribution plate comprises at least one centring recess in which a first axial end of the dome is inserted axially so that the distribution plate covers the first inlet hole, and in that the collection plate comprises at least one centring recess in which an axial end of the sample holder is inserted axially so that the collection plate covers the second outlet hole, these centring recesses being capable of radially retaining the dome relative to the distribution plate and retaining the sample holder relative to the collection plate, respectively, and in that the end of the collection conduit facing the second outlet hole has a diameter which is strictly less than the inner diameter of the centring recess of the collection plate which is intended to receive the sample holder, and the collection conduit and the end of the cylindrical conduit of the sample holder being connected by a substantially planar or conical surface portion of the collection plate. - a substantially cylindrical processing dome (21, 32, 132) comprising a sealed circumferential wall, a first inlet hole and a first outlet hole, - a distribution plate which is gas-tight and which is capable of being assembled with the processing dome (21, 32, 132) in a sealed manner and which comprises at least one supply conduit which extends through the plate in order to open in the first inlet hole, - a monobloc sample holder (21, 33, 133) through which there extends a substantially cylindrical conduit which connects a second inlet hole and a second outlet hole, the sample holder being a separate component (33, 133) which is capable of being assembled with the dome (32, 132) in order to form a gas-tight space which connects the first inlet hole and the second outlet hole, - a gas-tight collection plate which is capable of being assembled with the sample holder (21, 33, 133) in a sealed manner, and comprising at least one collection conduit which extends through the plate in order to open in the second outlet hole,
A delivery system for delivering a healing material onto a photoconductive member, the system comprising: a holder for holding an amount of of healing material; and a delivery member for delivering a healing material from the holder onto a photoconductive member, the delivery member comprising: a substrate; and an elastic outer layer disposed on the substrate, wherein a surface of the elastic outer layer has a pattern comprising an array of periodically ordered indentations or protrusions on the surface of the elastic outer layer to control the amount of delivered healing material. a holder for holding an amount of of healing material; and a delivery member for delivering a healing material from the holder onto a photoconductive member, the delivery member comprising: a substrate; and an elastic outer layer disposed on the substrate, wherein a surface of the elastic outer layer has a pattern comprising an array of periodically ordered indentations or protrusions on the surface of the elastic outer layer to control the amount of delivered healing material. a substrate; and an elastic outer layer disposed on the substrate, wherein a surface of the elastic outer layer has a pattern comprising an array of periodically ordered indentations or protrusions on the surface of the elastic outer layer to control the amount of delivered healing material.
An aerosol product for forming a gel composition, comprising: a double-structure container including a propellant filling space and two independent liquid concentrate filling spaces and having a discharging mechanism for simultaneously discharging contents filled in the two liquid concentrate filling spaces, wherein the propellant filling space in the double-structure container is filled with a propellant composed of a compressed gas, a first liquid concentrate filling space in the double-structure container is filled with a first liquid concentrate composition, and a second liquid concentrate filling space in the double-structure container is filled with a second liquid concentrate composition, the first liquid concentrate composition contains water and a water-soluble alginic acid salt, the second liquid concentrate composition contains water and a dissociative calcium salt, and the first liquid concentrate composition discharged from the first liquid concentrate filling space and the second liquid concentrate composition discharged from the second liquid concentrate filling space are mixed to form a gel composition. a double-structure container including a propellant filling space and two independent liquid concentrate filling spaces and having a discharging mechanism for simultaneously discharging contents filled in the two liquid concentrate filling spaces, wherein the propellant filling space in the double-structure container is filled with a propellant composed of a compressed gas, a first liquid concentrate filling space in the double-structure container is filled with a first liquid concentrate composition, and a second liquid concentrate filling space in the double-structure container is filled with a second liquid concentrate composition, the first liquid concentrate composition contains water and a water-soluble alginic acid salt, the second liquid concentrate composition contains water and a dissociative calcium salt, and the first liquid concentrate composition discharged from the first liquid concentrate filling space and the second liquid concentrate composition discharged from the second liquid concentrate filling space are mixed to form a gel composition.
An apparatus configured to fill and seal a plurality of water balloons, the apparatus comprising: a housing comprising a threaded opening at a first end and comprising a plurality of holes at a second end; a plurality of hollow tubes, wherein each hollow tube is attached t a respective one of the holes at the second end; and a plurality of elastic fasteners, each elastic fastener clamping a respective one of the plurality of water balloons to a corresponding hollow tube, and each elastic fastener configured to seal its respective one of the plurality of water balloons upon detaching the water balloon from its corresponding hollow tube, wherein the elastic fasteners are elastic rings. a housing comprising a threaded opening at a first end and comprising a plurality of holes at a second end; a plurality of hollow tubes, wherein each hollow tube is attached t a respective one of the holes at the second end; and a plurality of elastic fasteners, each elastic fastener clamping a respective one of the plurality of water balloons to a corresponding hollow tube, and each elastic fastener configured to seal its respective one of the plurality of water balloons upon detaching the water balloon from its corresponding hollow tube, wherein the elastic fasteners are elastic rings.
Computer-implemented radio communication channel estimation method comprising, for at least one time gap observed between two sub-sequences of radio communication channel measurements or of radio communication channel estimates, consisting of complex vectors or scalars, the following steps: - a first extrapolation is performed on the basis of radio communication channel measurements or radio communication channel estimates of the sub-sequence that precedes said time gap, going forward in time, - a second extrapolation is performed on the basis of radio communication channel measurements or radio communication channel estimates of the sub-sequence that follows the time gap, going backward in time, and - a weighted mean of said radio communication channel measurements or estimates extrapolated forward in time and of said radio communication channel measurements or estimates extrapolated backward in time is calculated so as to obtain radio communication channel measurements or radio communication channel estimates that are regularly spaced out over the time gap. - a first extrapolation is performed on the basis of radio communication channel measurements or radio communication channel estimates of the sub-sequence that precedes said time gap, going forward in time, - a second extrapolation is performed on the basis of radio communication channel measurements or radio communication channel estimates of the sub-sequence that follows the time gap, going backward in time, and - a weighted mean of said radio communication channel measurements or estimates extrapolated forward in time and of said radio communication channel measurements or estimates extrapolated backward in time is calculated so as to obtain radio communication channel measurements or radio communication channel estimates that are regularly spaced out over the time gap.
A can body printing system comprising: a distinction unit distinguishing a can body from another can body by identification information, wherein the identification information is at least one of an image attached to the barrel portion of the can body and a deformed portion provided to the can body; and a control unit using the identification information provided by the distinction unit and controlling to perform printing on the barrel portion of the can body distinguished from the another can body. a distinction unit distinguishing a can body from another can body by identification information, wherein the identification information is at least one of an image attached to the barrel portion of the can body and a deformed portion provided to the can body; and a control unit using the identification information provided by the distinction unit and controlling to perform printing on the barrel portion of the can body distinguished from the another can body.
A compound of the formula II in which X is substituted pyrrolide with the general structure of in which R a - R d are independently selected from H, C1-C4 alkyl, C1-C4 alkoxy, aryl, aryloxy, dialkylamino, diarylamino, halogen, trifluoromethyl, cyano, nitro, sulfonyl and sulfinyl; Y is selected from C1-C6 alkoxy and C1-C10 aryloxy, both of which may be substituted with alkoxy, aryloxy, dialkylamino, diarylamino, halogen, trifluoromethyl, cyano, nitro, sulfonyl and sulfinyl R 1 is selected from H, C1-C12 alkyl and 5- to 18-membered aryl, both of which may be substituted with one or more of C1-C12-alkyl, 5- to 18-membered aryl, C1-C12-alkyloxy, di-(C1-C4-alkyl)amino, halogen, trifluoromethyl, cyano and nitro residues; R 2 is selected from C1-C12-alkyl and 5- to 18-membered aryl, both of which may be substituted with one or more of C1-C12 alkyl, 5- to 18-membered aryl, C1-C12-alkyloxy, di(C1-C4alkyl)amino, halogen, trifluoromethyl, cyano, nitro residues; R 3 is selected from C1-C12 alkyl and 5- to 18-membered aryl, both of which may be substituted with one or more of C1-C12 alkyl, 5- to 18-membered aryl, C1-C12-alkoxy, di(C1-C4-alkyl)amino, halogen, trifluoromethyl, cyano and nitro residues; and, R 4 -R 11 are independently selected from H, C1-C4 alkyl and halogen, wherein "alkyl" and "alkoxy" encompass instances in which the alkyl entity is linear, branched or cycloalkyl, and "aryl" encompasses heteroaryl entities. X is substituted pyrrolide with the general structure of in which R a - R d are independently selected from H, C1-C4 alkyl, C1-C4 alkoxy, aryl, aryloxy, dialkylamino, diarylamino, halogen, trifluoromethyl, cyano, nitro, sulfonyl and sulfinyl; Y is selected from C1-C6 alkoxy and C1-C10 aryloxy, both of which may be substituted with alkoxy, aryloxy, dialkylamino, diarylamino, halogen, trifluoromethyl, cyano, nitro, sulfonyl and sulfinyl R 1 is selected from H, C1-C12 alkyl and 5- to 18-membered aryl, both of which may be substituted with one or more of C1-C12-alkyl, 5- to 18-membered aryl, C1-C12-alkyloxy, di-(C1-C4-alkyl)amino, halogen, trifluoromethyl, cyano and nitro residues; R 2 is selected from C1-C12-alkyl and 5- to 18-membered aryl, both of which may be substituted with one or more of C1-C12 alkyl, 5- to 18-membered aryl, C1-C12-alkyloxy, di(C1-C4alkyl)amino, halogen, trifluoromethyl, cyano, nitro residues; R 3 is selected from C1-C12 alkyl and 5- to 18-membered aryl, both of which may be substituted with one or more of C1-C12 alkyl, 5- to 18-membered aryl, C1-C12-alkoxy, di(C1-C4-alkyl)amino, halogen, trifluoromethyl, cyano and nitro residues; and, R 4 -R 11 are independently selected from H, C1-C4 alkyl and halogen, wherein "alkyl" and "alkoxy" encompass instances in which the alkyl entity is linear, branched or cycloalkyl, and "aryl" encompasses heteroaryl entities.
A device for use in printing, the device comprising: a first chamber (508, 911) for receiving a fluid; a first filter member in the first chamber (508, 911), the first filter member separating the first chamber (508, 911) into a first part and a second part (538, 907) laterally adjacent to the first part, the first filter member comprising pores having an average size, the pores configured to filter the fluid passing from the first part to the second part (538, 907), the first filter member further comprising an opening adjacent to a top of the first chamber (508, 911) for air to pass from the first part to the second part (538, 907), the opening having a size at least 10 times larger than the average size of the pores; a first inlet in fluid communication with the first part; and a first outlet in fluid communication with the second part (538, 907), characterized in that: the opening is covered by a hydrophobic patch (702, 804, 1002) that is permeable to air and impermeable to the fluid. a first chamber (508, 911) for receiving a fluid; a first filter member in the first chamber (508, 911), the first filter member separating the first chamber (508, 911) into a first part and a second part (538, 907) laterally adjacent to the first part, the first filter member comprising pores having an average size, the pores configured to filter the fluid passing from the first part to the second part (538, 907), the first filter member further comprising an opening adjacent to a top of the first chamber (508, 911) for air to pass from the first part to the second part (538, 907), the opening having a size at least 10 times larger than the average size of the pores; a first inlet in fluid communication with the first part; and a first outlet in fluid communication with the second part (538, 907), characterized in that: the opening is covered by a hydrophobic patch (702, 804, 1002) that is permeable to air and impermeable to the fluid.