mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method of monitoring the behaviour of a subsurface volume, said method comprising: transforming an input single discrete parameter or an input ensemble of discrete parameters describing an attribute of said subsurface volume, each discrete parameter having N possible discrete values with N≥2, into N indicator parameters each having 2 possible discrete values; for each of the two value classes of each indicator parameter, determining the anisotropic distance to a value transition interface; the method being characterized in transforming each of said indicator parameters into a corresponding continuous parameter using said determined anisotropic distance to the value transition interface; and using said continuous parameters in a history matching process, or iteration thereof, and subsequent to this, constructing an output discrete parameter or an output ensemble of discrete parameters from said continuous parameters; wherein said output discrete parameter or output ensemble of discrete parameters better corresponds to observed data describing said subsurface volume than said input single discrete parameter or said input ensemble of discrete parameters. transforming an input single discrete parameter or an input ensemble of discrete parameters describing an attribute of said subsurface volume, each discrete parameter having N possible discrete values with N≥2, into N indicator parameters each having 2 possible discrete values; for each of the two value classes of each indicator parameter, determining the anisotropic distance to a value transition interface; the method being characterized in transforming each of said indicator parameters into a corresponding continuous parameter using said determined anisotropic distance to the value transition interface; and using said continuous parameters in a history matching process, or iteration thereof, and subsequent to this, constructing an output discrete parameter or an output ensemble of discrete parameters from said continuous parameters; wherein said output discrete parameter or output ensemble of discrete parameters better corresponds to observed data describing said subsurface volume than said input single discrete parameter or said input ensemble of discrete parameters.
A method of providing a voicemail service at a handheld wireless device, comprising: recording an incoming audio message in a local memory of said handheld device; and displaying an incoming audio message record, corresponding to said incoming audio message, in a user interface screen of said handheld device, said user interface screen contemporaneously presenting email message records along with said incoming audio message record; placing a call to a recipient; automatically detecting that said call is answered by a remote voicemail system; transmitting an outgoing audio message to said remote voicemail system; and recording the outgoing audio message for said call in said local memory, which results in an outgoing message record; selectively grouping said outgoing message record with said incoming message record; and displaying in said user interface screen said outgoing message record for said call. recording an incoming audio message in a local memory of said handheld device; and displaying an incoming audio message record, corresponding to said incoming audio message, in a user interface screen of said handheld device, said user interface screen contemporaneously presenting email message records along with said incoming audio message record; placing a call to a recipient; automatically detecting that said call is answered by a remote voicemail system; transmitting an outgoing audio message to said remote voicemail system; and recording the outgoing audio message for said call in said local memory, which results in an outgoing message record; selectively grouping said outgoing message record with said incoming message record; and displaying in said user interface screen said outgoing message record for said call.
Millimeter wave scanning imaging system, for scanning objects (12, 13), comprising: - a transport means being a conveyor belt adapted to transport the objects (12, 13) in a first direction, - a millimeter wave measurement system comprising at least a transmitter system coupled to a first antenna, and a receiver system coupled to a second antenna, the first antenna and the second antenna being arranged distant to each other and forming a gap through which the objects (12, 13) can be transported, - a scanning system for an arc-shaped movement of the first antenna and the second antenna in a direction approximately under a right angle to the first direction, wherein the first antenna and the second antenna are rotatable synchronous to each other, a waveguide system comprising at least a first rotary joint is provided for transfer of RF energy from the transmitter system to a transmitting antenna, characterized in that the transmitter system generates a H 11 mode signal, carried in a first stationary circular waveguide, which is adapted to be integrated into a first rotary joint, wherein said rotary joint is coupled between stationary and rotating parts and adapted for connecting circular waveguides using H 11 mode signals on both sides, and which furthermore couples the signal to the first antenna, which is a circular and/or conical antenna, and the waveguide system keeps the orientation of the electromagnetic field or the polarization of the electromagnetic waves constant over rotation, at least over an arc-shaped segment of the scanning movement on the conveyor belt. - a transport means being a conveyor belt adapted to transport the objects (12, 13) in a first direction, - a millimeter wave measurement system comprising at least a transmitter system coupled to a first antenna, and a receiver system coupled to a second antenna, the first antenna and the second antenna being arranged distant to each other and forming a gap through which the objects (12, 13) can be transported, - a scanning system for an arc-shaped movement of the first antenna and the second antenna in a direction approximately under a right angle to the first direction,
An electronic price indicator comprising: a housing; a display arranged on an outer circumferential surface of the housing and configured to display visual information; and a battery case arranged on at least one area of the housing and accommodating a battery for supplying power to the display, wherein the battery case includes: a first battery accommodating portion accommodating at least one first battery; a second battery accommodating portion arranged apart from the first battery accommodating portion and accommodating at least one second battery serially connected with the at least one first battery; a rail arranged between the first battery accommodating portion and the second battery accommodating portion; and a structure configured to move along the rail between the first battery accommodating portion and the second battery accommodating portion and prevent contact between same terminals of the at least one first battery and the at least one second battery at a point at which the at least one first battery and the at least one second battery touch each other. a housing; a display arranged on an outer circumferential surface of the housing and configured to display visual information; and a battery case arranged on at least one area of the housing and accommodating a battery for supplying power to the display, wherein the battery case includes: a first battery accommodating portion accommodating at least one first battery; a second battery accommodating portion arranged apart from the first battery accommodating portion and accommodating at least one second battery serially connected with the at least one first battery; a rail arranged between the first battery accommodating portion and the second battery accommodating portion; and a structure configured to move along the rail between the first battery accommodating portion and the second battery accommodating portion and prevent contact between same terminals of the at least one first battery and the at least one second battery at a point at which the at least one first battery and the at least one second battery touch each other. a first battery accommodating portion accommodating at least one first battery; a second battery accommodating portion arranged apart from the first battery accommodating portion and accommodating at least one second battery serially connected with the at least one first battery; a rail arranged between the first battery accommodating portion and the second battery accommodating portion; and a structure configured to move along the rail between the first battery accommodating portion and the second battery accommodating portion and prevent contact between same terminals of the at least one first battery and the at least one second battery at a point at which the at least one first battery and the at least one second battery touch each other.
Touch-sensitive sensor assembly designed as a transparent layer structure comprising - a first layer, - a second layer, - a means for detecting a touch or proximity to a contact surface, wherein the first layer has the contact surface and a counter surface lying opposite the contact surface, wherein the second layer has the means for detecting a touch and is arranged directed towards the counter surface, wherein, starting from a viewing direction directed by an observer onto the contact surface, a third layer is arranged after the second layer in a viewing direction, and is designed such that it is transparent and can be electrically heated, wherein a fourth layer is present, characterised in that the first layer and the fourth layer are designed as a contiguous glass pane and the second layer is arranged inside the glass pane, wherein a surface of the glass pane in turn is designed as an active glass surface facing the observer and the further surface of the glass pane is designed as an inactive glass surface, wherein the third layer is arranged on the inactive glass surface. - a first layer, - a second layer, - a means for detecting a touch or proximity to a contact surface,
Composite for an aircraft or spacecraft, comprising: a skin portion; a stringer which is attached to the skin portion, wherein the stringer is constructed in a T-shape and comprises a foot portion and a web portion; and a former made from fibre composite material, which is attached to the skin portion and forms an opening therewith, through which the stringer extends completely with its foot portion and its web portion, substantially transverse to the former, wherein the shape of the opening of the former corresponds substantially to the external geometry of the stringer so that a gap between the stringer and the former is minimised or closed, wherein the former is constructed as a hollow Ω-profile and is riveted to the skin portion and wherein the stringer is arranged to contact the skin portion and is riveted to the skin portion. a skin portion; a stringer which is attached to the skin portion, wherein the stringer is constructed in a T-shape and comprises a foot portion and a web portion; and a former made from fibre composite material, which is attached to the skin portion and forms an opening therewith, through which the stringer extends completely with its foot portion and its web portion, substantially transverse to the former, wherein the shape of the opening of the former corresponds substantially to the external geometry of the stringer so that a gap between the stringer and the former is minimised or closed, wherein the former is constructed as a hollow Ω-profile and is riveted to the skin portion and wherein the stringer is arranged to contact the skin portion and is riveted to the skin portion.
A solid state ring laser gyroscope, comprising: a laser block including a resonant ring cavity having an optical closed loop pathway; a plurality of mirror structures (114, 116, 118) respectively mounted on the laser block, each of the mirror structures including a respective multilayer mirror (120, 122, 124) in optical communication with the optical closed loop pathway, each multilayer mirror positioned and angled to reflect light beams around the optical closed loop pathway; and a pump laser assembly in optical communication with the optical closed loop pathway through one of the mirror structures; wherein one or more of the multilayer mirrors includes a rare-earth doped gain layer, the gain layer operative to produce bidirectional optical amplification of counter-propagating light beams in the optical closed loop pathway; wherein the pump laser assembly is configured to inject a light beam into the rare-earth doped gain layer; characterized in that the rare-earth doped gain layer comprises: (i) a rare-earth dopant other than neodymium that is doped into a glassy host material, wherein the glassy host material comprises titania, tantalum oxide, alumina, zirconia, silicate glass, phosphate glass, tellurite glass, fluorosilicate glass, or non-oxide glass; or (ii) a neodymium dopant that is doped into a glassy host material other than silica. a laser block including a resonant ring cavity having an optical closed loop pathway; a plurality of mirror structures (114, 116, 118) respectively mounted on the laser block, each of the mirror structures including a respective multilayer mirror (120, 122, 124) in optical communication with the optical closed loop pathway, each multilayer mirror positioned and angled to reflect light beams around the optical closed loop pathway; and a pump laser assembly in optical communication with the optical closed loop pathway through one of the mirror structures; wherein one or more of the multilayer mirrors includes a rare-earth doped gain layer, the gain layer operative to produce bidirectional optical amplification of counter-propagating light beams in the optical closed loop pathway; wherein the pump laser assembly is configured to inject a light beam into the rare-earth doped gain layer; characterized in that the rare-earth doped gain layer comprises: (i) a rare-earth dopant other than neodymium that is doped into a glassy host material, wherein the glassy host material comprises titania, tantalum oxide, alumina, zirconia, silicate glass, phosphate glass, tellurite glass, fluorosilicate glass, or non-oxide glass; or (ii) a neodymium dopant that is doped into a glassy host material other than silica. (i) a rare-earth dopant other than neodymium that is doped into a glassy host material, wherein the glassy host material comprises titania, tantalum oxide, alumina, zirconia, silicate glass, phosphate glass, tellurite glass, fluorosilicate glass, or non-oxide glass; or (ii) a neodymium dopant that is doped into a glassy host material other than silica.
An apparatus for mounting a device to a liquid handling system, the apparatus comprising: - at least one first unit configured to be attached to a part of the liquid handling system, the first unit comprising at least one groove and a locking part comprising one first end and one second end, and - at least one second unit configured to be arranged at least partially within the at least one groove of the first unit, the second unit comprising: - at least one notched rail configured to be inserted within the groove of the first unit, - at least one mount mechanism configured to be attached to at least one device, wherein the locking part of the first unit has at least a closed position and an open position, so that when the second unit is arranged within the groove, in the closed position the locking part is configured so that said first end and said second end are inserted into respective notches (224, 225, 222) in the top surface of the notched rail, thereby locking the second unit with respect to the first unit, and in the open position the locking part is configured so that the second unit is movable with respect to the first unit. - at least one first unit configured to be attached to a part of the liquid handling system, the first unit comprising at least one groove and a locking part comprising one first end and one second end, and - at least one second unit configured to be arranged at least partially within the at least one groove of the first unit, the second unit comprising: - at least one notched rail configured to be inserted within the groove of the first unit, - at least one mount mechanism configured to be attached to at least one device, - at least one notched rail configured to be inserted within the groove of the first unit, - at least one mount mechanism configured to be attached to at least one device, wherein the locking part of the first unit has at least a closed position and an open position, so that when the second unit is arranged within the groove, in the closed position the locking part is configured so that said first end and said second end are inserted into respective notches (224, 225, 222) in the top surface of the notched rail, thereby locking the second unit with respect to the first unit, and in the open position the locking part is configured so that the second unit is movable with respect to the first unit.
An ionomer comprising a reaction product of the reaction between: a) a halogenated isoolefin copolymer comprising repeating units derived from at least one isoolefin monomer, and repeating units derived from one or more multiolefin monomers; and b) a first nucleophile having no pendant vinyl group, and a second nucleophile comprising at least one pendant vinyl group; wherein the ratio of the first nucleophile to the second nucleophile is from 4:1 to 100:1. a) a halogenated isoolefin copolymer comprising repeating units derived from at least one isoolefin monomer, and repeating units derived from one or more multiolefin monomers; and b) a first nucleophile having no pendant vinyl group, and a second nucleophile comprising at least one pendant vinyl group;
Process for producing surface modified particulate finely divided solid F of large surface area, which process comprises a process step of mixing a partial amount of unmodified finely divided solid F1 with organosilicon compound to produce an offgas comprising organosilicon compound, a process step of reacting the mixture of unmodified finely divided solid F1 with organosilicon compound to produce surface modified finely divided solid F with or without an offgas comprising organosilicon compound, a process step of freeing the surface modified finely divided solid F of adsorbed byproducts and unconverted organosilicon compound which are obtained as offgas, a process step of metering a further partial amount of unmodified finely divided solid F1 into the offgas obtained in process steps, and, if applicable, to mix the solid F1 with organosilicon compound in the offgas, and a process step of the mixture obtained in process step being fed in process step to the partial amount of unmodified finely divided solid F1 and organosilicon compound.
Bearing hub for a washing machine, of a metallic material, destined to be embedded in a plastic tub of the washing machine to the support of a rotation axis of a drum, the bearing hub having a trunco-conicity in the direction of its axis, and having at least an outer surface with an eccentricity, characterized in that the outer surfaces are essentially smooth, i.e. these surfaces lack ribs intended to prevent rotational movement of the bearing hub relative to the plastic tub and that the eccentricity itself prevents rotation of the bearing hub relative to the tub.
A load crane for use in an automated warehouse having a plurality of rows, wherein the rows extend vertically in a plurality of levels, and are arranged in parallel in a horizontal direction to form a rack, the load crane comprising a pair of spaced apart vertical struts; an elevator unit movably arranged along the vertical struts, and configured to be stopped at different levels in line with the levels of the rack, and a suspension unit configured to suspend the load crane above floor level in the automated warehouse, characterized in that the load crane further comprises a goods support arrangement, connected to the vertical struts and comprising a number of levels for intermediate storage of goods, and wherein the elevator unit is further configured to be stopped at different levels in line with the levels of the goods support arrangement. a pair of spaced apart vertical struts; an elevator unit movably arranged along the vertical struts, and configured to be stopped at different levels in line with the levels of the rack, and a suspension unit configured to suspend the load crane above floor level in the automated warehouse, characterized in that the load crane further comprises a goods support arrangement, connected to the vertical struts and comprising a number of levels for intermediate storage of goods, and wherein the elevator unit is further configured to be stopped at different levels in line with the levels of the goods support arrangement.
A photoelectric sensor comprising: an amplification processing part that amplifies a received light intensity signal generated through light projection processing (2, 11) and light receiving processing (10, 12, 13); and a detection processing part (16, 17) that performs detection processing using the amplified received light intensity signal, wherein the amplification processing part includes: a gain control part (14, 141) that receives an adjustment command signal changing linearly with respect to a sensitivity adjustment manipulation performed by a user, and converts the adjustment command signal into a gain control signal changing exponentially with respect to the sensitivity adjustment manipulation; and a variable amplification part (14, 142) that performs amplification processing using a gain according to the gain control signal. an amplification processing part that amplifies a received light intensity signal generated through light projection processing (2, 11) and light receiving processing (10, 12, 13); and a detection processing part (16, 17) that performs detection processing using the amplified received light intensity signal, wherein the amplification processing part includes: a gain control part (14, 141) that receives an adjustment command signal changing linearly with respect to a sensitivity adjustment manipulation performed by a user, and converts the adjustment command signal into a gain control signal changing exponentially with respect to the sensitivity adjustment manipulation; and a variable amplification part (14, 142) that performs amplification processing using a gain according to the gain control signal. a gain control part (14, 141) that receives an adjustment command signal changing linearly with respect to a sensitivity adjustment manipulation performed by a user, and converts the adjustment command signal into a gain control signal changing exponentially with respect to the sensitivity adjustment manipulation; and a variable amplification part (14, 142) that performs amplification processing using a gain according to the gain control signal.