mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining a parameter of a state of an electrochemical cell comprising an electrode plate group (F), said electrode plate group being constituted by an assembly of positive electrodes (E+) and negative electrodes (E-), with a separator (S) being interleaved between a positive electrode and a negative electrode, said. method being characterized in that it comprises the following steps: a) generating, using a network analyzer, an electromagnetic wave in a frequency ranging from 10 kHz to 10 GHz, b) sending the electromagnetic wave through a means for conducting an electromagnetic wave to one terminal of the electrochemical cell c) receiving the signal constituted by the electromagnetic wave reflected or transmitted by the electrode plate group; d) calculating, using the network analyzer the complex impedance (Z) of the electrochemical cell through which the electromagnetic wave is passing; e) analyzing at least a portion of a complex impedance spectrum of the electrochemical cell upon application of the electromagnetic wave so as to determine an indicator of the value of said state parameter, said indicator being chosen from the resonance frequency f 0 of the complex impedance spectrum, the real part Re(Z) of the complex impedance, the imaginary part Im(Z) of the complex impedance and the argument of the complex impedance Arg(Z). a) generating, using a network analyzer, an electromagnetic wave in a frequency ranging from 10 kHz to 10 GHz, b) sending the electromagnetic wave through a means for conducting an electromagnetic wave to one terminal of the electrochemical cell c) receiving the signal constituted by the electromagnetic wave reflected or transmitted by the electrode plate group; d) calculating, using the network analyzer the complex impedance (Z) of the electrochemical cell through which the electromagnetic wave is passing; e) analyzing at least a portion of a complex impedance spectrum of the electrochemical cell upon application of the electromagnetic wave so as to determine an indicator of the value of said state parameter, said indicator being chosen from the resonance frequency f 0 of the complex impedance spectrum, the real part Re(Z) of the complex impedance, the imaginary part Im(Z) of the complex impedance and the argument of the complex impedance Arg(Z).
An electrolyte, comprising or consisting of the following components: - methanesulfonic acid; and - more than one polyhydric alcohol, the content of methanesulfonic acid being less than 15 vol%, and furthermore the polyhydric alcohols comprising at least one diol and at least one polyalcohol, characterized in that the at least one diol accounts for 20 to 65 vol%, and the at least one polyalcohol accounts for 20 to 65 vol%. - methanesulfonic acid; and - more than one polyhydric alcohol,
An assembly (E) comprising a set of strands forming a mooring and/or anchor cable, the strands extending mainly in a so-called direction D of tension in which the set of strands is intended to experience tensile stresses, characterized in that all the strands that form the set are made from the same material with the same mechanical tensile strength, the strands are made of transparent nylon and able to conduct light at least for certain wavelengths of light, in that at least one strand of the set forms a diagnostic fiber so that the diagnostic fiber is able to conduct light, the light propagating through the diagnostic fiber between an entrance end and an exit end , and in that the assembly (E) comprises a diagnostic device comprising: - a light source arranged to send a light beam into the diagnostic fiber at the entrance end , - a first optical sensor capable of delivering a signal representative of the light intensity in the exit end of the diagnostic fiber , the light intensity in the exit end of the diagnostic fiber being correlated to the mechanical state of the diagnostic fiber . the strands are made of transparent nylon and able to conduct light at least for certain wavelengths of light, in that at least one strand of the set forms a diagnostic fiber so that the diagnostic fiber is able to conduct light, the light propagating through the diagnostic fiber between an entrance end and an exit end , and in that the assembly (E) comprises a diagnostic device comprising: - a light source arranged to send a light beam into the diagnostic fiber at the entrance end , - a first optical sensor capable of delivering a signal representative of the light intensity in the exit end of the diagnostic fiber , the light intensity in the exit end of the diagnostic fiber being correlated to the mechanical state of the diagnostic fiber . - a light source arranged to send a light beam into the diagnostic fiber at the entrance end , - a first optical sensor capable of delivering a signal representative of the light intensity in the exit end of the diagnostic fiber , the light intensity in the exit end of the diagnostic fiber being correlated to the mechanical state of the diagnostic fiber .
A system for extruding and freeze-drying an extruded honeycomb body which has channels that extend in a longitudinal direction (L) and which channels are each bounded by first channel walls that extend in a first direction (A) which is transverse relative to the longitudinal direction (L), and by second channel walls that extend in a second direction (B) which is also transverse relative to the longitudinal direction (L), which system comprising: (i) an extruder having an extrusion head for producing the honeycomb body by extrusion; (ii) a microwave oven comprising an arrangement of a plurality of microwave radiators , each microwave radiator being for irradiating the honeycomb body with a directional microwave beam in an irradiation direction (S); and (iii) a feed unit adjoining the extruder for transferring the honeycomb body from the extruder into the microwave oven , wherein the system comprises a vacuum pump and wherein during operation the internal pressure in the microwave oven is set to less than 20 mbar; and the system comprises cooling regions for freezing the honeycomb bodies before the microwave oven , and wherein the system is designed to sense the orientation of the first and/or second channel walls of the honeycomb body produced by the extruder and to move the honeycomb body and/or a microwave radiator into a set point orientation such that the irradiation direction (S) of each microwave radiator is oriented at a predefined irradiation angle (a) which is not zero relative to each of the two transverse directions (A, B) of the first and second channel walls , wherein the predefined irradiation angle is in the range from 30° to 60° with respect to the first or the second transverse direction (A, B) of the first and second channel walls . (i) an extruder having an extrusion head for producing the honeycomb body by extrusion; (ii) a microwave oven comprising an arrangement of a plurality of microwave radiators , each microwave radiator being for irradiating the honeycomb body with a directional microwave beam in an irradiation direction (S); and (iii) a feed unit adjoining the extruder for transferring the honeycomb body from the extruder into the microwave oven , wherein the system comprises a vacuum pump and wherein during operation the internal pressure in the microwave oven is set to less than 20 mbar; and the system comprises cooling regions for freezing the honeycomb bodies before the microwave oven , and wherein the system is designed to sense the orientation of the first and/or second channel walls of the honeycomb body produced by the extruder and to move the honeycomb body and/or a microwave radiator into a set point orientation such that the irradiation direction (S) of each microwave radiator is oriented at a predefined irradiation angle (a) which is not zero relative to each of the two transverse directions (A, B) of the first and second channel walls , wherein the predefined irradiation angle is in the range from 30° to 60° with respect to the first or the second transverse direction (A, B) of the first and second channel walls .
A storage container , preferably for secure item delivery, said storage container comprising a rigid body comprising at least a floor , a front wall , a back wall , a first side wall and a second side wall ; and at least one separating wall ; and a plurality of fixing elements configured to removably fix separating walls to the storage container between the front wall and the back wall ; and at least one locking element ; and wherein the body of the storage container comprises a plurality of compartments separated by the at least one separating wall and configured to be individually lockable via the locking element ; characterized in that wherein each separating wall and at least one of the front wall and the back wall comprises a roll fixedly attached at or near the top of each separating wall and at or near the top of at least one of the front wall and the back wall , said roll configured to assume at least a rolled up position and a plurality of extended positions; wherein each of the rolls is configured to be locked to the respective locking element and wherein upon locking of the respective roll to the respective locking element , the respective compartment is inaccessible until unlocking. a rigid body comprising at least a floor , a front wall , a back wall , a first side wall and a second side wall ; and at least one separating wall ; and a plurality of fixing elements configured to removably fix separating walls to the storage container between the front wall and the back wall ; and at least one locking element ; and wherein the body of the storage container comprises a plurality of compartments separated by the at least one separating wall and configured to be individually lockable via the locking element ; characterized in that wherein each separating wall and at least one of the front wall and the back wall comprises a roll fixedly attached at or near the top of each separating wall and at or near the top of at least one of the front wall and the back wall , said roll configured to assume at least a rolled up position and a plurality of extended positions; wherein each of the rolls is configured to be locked to the respective locking element and wherein upon locking of the respective roll to the respective locking element , the respective compartment is inaccessible until unlocking. wherein each separating wall and at least one of the front wall and the back wall comprises a roll fixedly attached at or near the top of each separating wall and at or near the top of at least one of the front wall and the back wall , said roll configured to assume at least a rolled up position and a plurality of extended positions; wherein each of the rolls is configured to be locked to the respective locking element and wherein upon locking of the respective roll to the respective locking element , the respective compartment is inaccessible until unlocking.
A system for providing packet classification using resource partitions in a network device in a high performance network, comprising: a network device in a high performance network; a plurality of partitions of data packet classification resources on the network device, wherein the plurality of partitions of classification resources include one or more hardware-based partitions configured to store flow entries associated with frequently-used or performance-sensitive flows, and a firmware-based partition for accessing lookup tables stored in one or more additional memories ; a lookup key composed from one or more header fields of a data packet received at the network device; and wherein the network device is configured to search for a match for the lookup key in the one or more hardware-based partitions, and when there is a miss in the hardware-based partitions, search in the firmware-based partition for a match for the lookup key. a network device in a high performance network; a plurality of partitions of data packet classification resources on the network device, wherein the plurality of partitions of classification resources include one or more hardware-based partitions configured to store flow entries associated with frequently-used or performance-sensitive flows, and a firmware-based partition for accessing lookup tables stored in one or more additional memories ; a lookup key composed from one or more header fields of a data packet received at the network device; and wherein the network device is configured to search for a match for the lookup key in the one or more hardware-based partitions, and when there is a miss in the hardware-based partitions, search in the firmware-based partition for a match for the lookup key.
A method of generating motion vector predictor candidates for a block to decode forming a part of a current video frame that is to be decoded, wherein, if available, the number of temporal motion vector predictor candidates generated is not more than one and the number of spatial motion vector predictor candidates generated is at least one, the method comprising: generating the spatial motion vector predictor candidate by, if available, selecting as the spatial motion vector predictor candidate a motion vector associated with a block neighboring and diagonally below and to the left of the block to decode; and generating the one temporal motion vector predictor candidate by, if available, selecting as the one temporal motion vector predictor candidate a motion vector associated with a top left position in a block of a reference frame neighboring and diagonally below and to the right of an area of the reference frame, the reference frame being different from the current video frame and said area having the same position and the same size as the block to decode. generating the spatial motion vector predictor candidate by, if available, selecting as the spatial motion vector predictor candidate a motion vector associated with a block neighboring and diagonally below and to the left of the block to decode; and generating the one temporal motion vector predictor candidate by, if available, selecting as the one temporal motion vector predictor candidate a motion vector associated with a top left position in a block of a reference frame neighboring and diagonally below and to the right of an area of the reference frame, the reference frame being different from the current video frame and said area having the same position and the same size as the block to decode.
A method of printing a three-dimensional article comprising: selectively depositing layers of a first ink in a fluid state onto a substrate; and selectively depositing layers of a second ink in a fluid state onto a substrate, wherein the first ink comprises a thiol monomer; and wherein the second ink comprises an ene monomer and wherein the second ink further comprises a (meth)acrylate monomer that differs from the ene monomer of the second ink, and the method further comprises curing the (meth)acrylate monomer with UV light; and wherein the thiol monomer and the ene monomer are not combined prior to printing; and wherein an ink does not comprise both a thiol species and also an ethylenically unsaturated species, polymerizing the ethylenically unsaturated moieties of the additional (meth)acrylate monomer to form a poly(meth)acrylate; thermally curing the thiol monomer of the first ink and the ene monomer of the second ink, comprising reacting the thiol monomer with the ene monomer to form a poly(thiol-ene); and forming an interpenetrating polymer network by the poly(meth)acrylate and poly(thiol-ene). selectively depositing layers of a first ink in a fluid state onto a substrate; and selectively depositing layers of a second ink in a fluid state onto a substrate, wherein the first ink comprises a thiol monomer; and wherein the second ink comprises an ene monomer and wherein the second ink further comprises a (meth)acrylate monomer that differs from the ene monomer of the second ink, and the method further comprises curing the (meth)acrylate monomer with UV light; and wherein the thiol monomer and the ene monomer are not combined prior to printing; and wherein an ink does not comprise both a thiol species and also an ethylenically unsaturated species, wherein the first ink comprises a thiol monomer; and wherein the second ink comprises an ene monomer and wherein the second ink further comprises a (meth)acrylate monomer that differs from the ene monomer of the second ink, and the method further comprises curing the (meth)acrylate monomer with UV light; and wherein the thiol monomer and the ene monomer are not combined prior to printing; and wherein an ink does not comprise both a thiol species and also an ethylenically unsaturated species, polymerizing the ethylenically unsaturated moieties of the additional (meth)acrylate monomer to form a poly(meth)acrylate; thermally curing the thiol monomer of the first ink and the ene monomer of the second ink, comprising reacting the thiol monomer with the ene monomer to form a poly(thiol-ene); and forming an interpenetrating polymer network by the poly(meth)acrylate and poly(thiol-ene).
A method of manufacturing a comestible capsule for holding a substance (S1) that is required to be held in hermetic isolation, the method including the steps of: providing a first comestible capsule portion having a closed end and an opposed open end ; providing a second comestible capsule portion having a closed end and an opposed open end ; at least partially filling the first capsule portion with the substance (S1) required to be held in hermetic isolation; inserting the closed end of the second capsule portion into the open end of the first capsule portion such that a region of the second capsule portion is in overlapping contact with a region of the first capsule portion ; welding overlapping open end regions of the first and second capsule in a fusion welding process such that the open end regions of the first and second capsule portions undergo partial phase change so as to form a fused hermetic seal between the first and second capsule portions , whereby the fused hermetic seal connects the open ends of the open end regions to each other and the method being characterised in that it includes bending the plasticised overlapping open end regions of the first and second capsule portions inwardly along a circumference of the open end regions such that a portion of a wall of the first capsule portion extends inwardly across a portion of a wall of the second capsule portion , causing the wall of the first capsule portion to intersect the wall of the second capsule portion , thereby restricting axial movement of the capsule portions relative to one another. providing a first comestible capsule portion having a closed end and an opposed open end ; providing a second comestible capsule portion having a closed end and an opposed open end ; at least partially filling the first capsule portion with the substance (S1) required to be held in hermetic isolation; inserting the closed end of the second capsule portion into the open end of the first capsule portion such that a region of the second capsule portion is in overlapping contact with a region of the first capsule portion ; welding overlapping open end regions of the first and second capsule in a fusion welding process such that the open end regions of the first and second capsule portions undergo partial phase change so as to form a fused hermetic seal between the first and second capsule portions , whereby the fused hermetic seal connects the open ends of the open end regions to each other and the method being characterised in that it includes bending the plasticised overlapping open end regions of the first and second capsule portions inwardly along a circumference of the open end regions such that a portion of a wall of the first capsule portion extends inwardly across a portion of a wall of the second capsule portion , causing the wall of the first capsule portion to intersect the wall of the second capsule portion , thereby restricting axial movement of the capsule portions relative to one another.
A unit having a camera and a LED light matrix to be installed obliquely relative to a moving paper machine web for illuminating a selected area and video imaging it from oblique direction, the LED light matrix equipped with impulse means and said LED light matrix including a group of LEDs each equipped with optics for focusing the light produced by the LED, characterized in that the LED light matrix is integrated to a camera casing (12.1) having said camera and an imaging aperture is asymmetrically located at the center of the LED light matrix , and the separate LEDs of the LED light matrix with the respective optics are so oriented and focused as a group that the intensity distribution of illumination in a selected area is weighted proportionally to a distance between the near web edge and a selected illuminated point in the selected area, illuminating more to a far distance than to a near distance.
A self-cleaning washing machine, comprising an outer tub and an inner tub , a chamber between the outer tub and the inner tub being provided with cleaning particles for cleaning an inner wall of the outer tub and an outer wall of the inner tub ; wherein an accommodating chamber for collecting the cleaning particles is connected to a drainage outlet of the outer tub ; characterized in that a shield cover is arranged at the drainage outlet, the shield cover rises or falls as a change of a water level in the washing machine or by a control of a control device to open or at least partially close the drainage outlet so that the cleaning particles are controllably flowed into the chamber or flowed back into the accommodating chamber .
A device for rapidly cooling extrudates of partially crystalline polymeric materials comprising a cooling tank filled with a cooling liquid, wherein at least one pivotably arranged calibration plate (k, k 1 , k 2 ) and at least one deflection device for transporting the cooled extrudate are situated in the cooling tank, wherein the calibration plate consists of a coated cooling plate, into which cooling channels and a channel for the drag volume flow are inserted.