mhurhangee/ep-ind-claims huggingface dataset:
A flame-retardant electrolytic capacitor comprising: an electrolytic capacitor element having a water content in the range of 0.1 to 10 wt%, the capacitor element comprising: an anode foil that is provided with an oxide film on the surface; a cathode foil, and a separator; and an electrolytic solution that contains a solute in a solvent, wherein a phosphoric acid ester amide represented by the following general formula or the following general formula is contained in the electrolytic solution: in which n is 1 or 2, and R 1 and R 2 each independently represent a linear or branched alkyl group having 1 to 10 carbon atoms, and Rf represents a linear or branched fluoroalkyl group having 1 to 10 carbon atoms or a linear or branched alkyl group having 1 to 10 carbon atoms; in which n is 1 or 2, and A represents a polymethylene group having 4 to 7 carbon atoms, a group in which at least one position of the C-C bonds in a polymethylene group having 4 to 7 carbon atoms is replaced by a C-O-C bond, a group in which at least one position of the C-C bonds in a polymethylene group having 4 to 7 carbon atoms is replaced by a C-NH-C bond, or a group in which at least one position of the C-C bonds in a polymethylene group having 4 to 7 carbon atoms is replaced by a C-N(CH 3)-C bond, and Rf represents a linear or branched fluoroalkyl group having 1 to 10 carbon atoms or a linear or branched alkyl group having 1 to 10 carbon atoms. an electrolytic capacitor element having a water content in the range of 0.1 to 10 wt%, the capacitor element comprising: an anode foil that is provided with an oxide film on the surface; a cathode foil, and a separator; and an anode foil that is provided with an oxide film on the surface; a cathode foil, and a separator; and an electrolytic solution that contains a solute in a solvent, wherein a phosphoric acid ester amide represented by the following general formula or the following general formula is contained in the electrolytic solution:
A method for back moulding of a decoration using an injection moulding device, wherein the injection moulding device has a decoration holder, wherein the decoration is shaped at its edge such that it can be fixed by means of this shaping in a portion (108,110) of the clamping region of the decoration holder with exactly one gap dimension (202; 204), wherein the clamping region is divided into a number of portions (108, 110), wherein a first portion has a first gap dimension and a second portion has a second gap dimension, wherein these different portions (108, 110) have a gap dimension (202, 204) corresponding to a decoration thickness, wherein the edge region of the decoration is tongue-shaped and engages in a tongue-shaped manner in the portion of the clamping region, wherein the method comprises the following steps: - inserting the edge region of the decoration into the clamping region, - fixing the decoration in the clamping region by the clamping force, - back moulding the decoration. - inserting the edge region of the decoration into the clamping region, - fixing the decoration in the clamping region by the clamping force, - back moulding the decoration.
A kit for preparing a chocolate beverage, the kit comprising a first container containing at least a chocolate beverage ingredient for transferring into a beverage receptacle and a second separate container (52,54) for use in a beverage preparation machine and containing at least milk solids, characterised in that the first container further contains a foam boosting agent.
A method for the production of methionine, in a fermentative process comprising the following steps: - culturing a modified microorganism selected from Enterobacteriaceae and Coryneform bacteria with an enhanced expression of genes involved in the methionine biosynthesis pathway in comparison with the non-modified microorganism, in an appropriate culture medium comprising a source of carbon and a source of sulfur, and - recovering methionine from the culture medium, wherein the microorganism is further modified by enhancing the expression of gene(s) coding for a succinate dehydrogenase enzyme achieved by inserting into the microorganism at least one supplementary copy of the four genes sdhA, sdhB, sdhC and sdhD of E. coli. - culturing a modified microorganism selected from Enterobacteriaceae and Coryneform bacteria with an enhanced expression of genes involved in the methionine biosynthesis pathway in comparison with the non-modified microorganism, in an appropriate culture medium comprising a source of carbon and a source of sulfur, and - recovering methionine from the culture medium,
A method of preparing an anatomical healing abutment for a dental implant implanted in a patient's gum, the emerging end of the implant being covered by a removable cap, the method comprising: a) an impression-taking step involving application of a moulding paste in the annular space between the gum and the cap, then extraction of the cap with the moulding paste forming the impression; and b) a step wherein a negative mould is prepared which corresponds to the impression obtained in step b); c) a moulding step wherein the cap without the cured moulding paste, or another similar or identical cap is placed in the negative mould and a curable moulding material is introduced into the cavity between the cap and the wall of the mould, the moulding material thus being fixed to the cap and conforming to the cavity of the mould; d) removal, from the mould, of the assembly comprising cap and cured moulding material, so forming an anatomical healing abutment; wherein, in step a) and/or c), the cap comprises a tubular body closed at one end and open at the other, the tubular body being configured to be engaged by snapping-on of its open end onto a head part of a dental implant, wherein the outer surface of the tubular body is textured, at least over part of the circumference, so as to promote moulding material attachment. a) an impression-taking step involving application of a moulding paste in the annular space between the gum and the cap, then extraction of the cap with the moulding paste forming the impression; and b) a step wherein a negative mould is prepared which corresponds to the impression obtained in step b); c) a moulding step wherein the cap without the cured moulding paste, or another similar or identical cap is placed in the negative mould and a curable moulding material is introduced into the cavity between the cap and the wall of the mould, the moulding material thus being fixed to the cap and conforming to the cavity of the mould; d) removal, from the mould, of the assembly comprising cap and cured moulding material, so forming an anatomical healing abutment;
A method of wireless communication operable at an access terminal, comprising: waking from a low-power state; characterized by determining that a drift in a centre of a search window for a pilot search is less than a predetermined threshold as an entrance criteria; if the entrance criteria is met over a hysteresis window, being a window of time, adapting a pilot acquisition timeline in accordance with the determination, wherein adapting the pilot acquisition timeline comprises reducing a duration of the pilot acquisition timeline relative to a default duration; and searching for the pilot in accordance with the dynamically adapted pilot acquisition timeline. waking from a low-power state; characterized by determining that a drift in a centre of a search window for a pilot search is less than a predetermined threshold as an entrance criteria; if the entrance criteria is met over a hysteresis window, being a window of time, adapting a pilot acquisition timeline in accordance with the determination, wherein adapting the pilot acquisition timeline comprises reducing a duration of the pilot acquisition timeline relative to a default duration; and searching for the pilot in accordance with the dynamically adapted pilot acquisition timeline.
A olefin metathesis catalyst represented by the structure of Formula, wherein: M is a Ru; q is 0; X 3 is Cl; X 4 is Cl; wherein: L 4 and L 5 are independently A 1 is hydrogen; and A 2 is phenyl, C 1 -C 3 alkyl or C 2 -C 4 alkenyl with A 2 being substituted with at least one substituent selected from: C 1 -C 6 alkoxy (-O-alkyl), C 2 -C 24 alkylcarbonyloxy (-O-CO-alkyl) and C 1 -C 6 alkyl groups; A 3 and A 4 are independently phenyl substituted with at least one substituent selected from halo and C 1 -C 6 alkyl; unsubstituted C 5 -C 10 cycloalkyl; or C 5 -C 10 substituted cycloalkyl with at least one substituent selected from halo and C 1 -C 6 alkyl; A 5, A 6, A 7 and A 8 are independently hydrogen, C 1 -C 6 alkyl or C 5 -C 10 aryl; o is 1; or the compound of formula 1 is M is a Ru; q is 0; X 3 is Cl; X 4 is Cl; L 4 and L 5 are independently A 1 is hydrogen; and A 2 is phenyl, C 1 -C 3 alkyl or C 2 -C 4 alkenyl with A 2 being substituted with at least one substituent selected from: C 1 -C 6 alkoxy (-O-alkyl), C 2 -C 24 alkylcarbonyloxy (-O-CO-alkyl) and C 1 -C 6 alkyl groups; A 3 and A 4 are independently phenyl substituted with at least one substituent selected from halo and C 1 -C 6 alkyl; unsubstituted C 5 -C 10 cycloalkyl; or C 5 -C 10 substituted cycloalkyl with at least one substituent selected from halo and C 1 -C 6 alkyl; A 5, A 6, A 7 and A 8 are independently hydrogen, C 1 -C 6 alkyl or C 5 -C 10 aryl; o is 1; or the compound of formula 1 is
A revolution vibration suppressing method for a pump truck boom, wherein, the boom is mounted on a revolving platform of the pump truck, and the revolving platform is driven to revolve by a revolving actuator so as to drive the boom to revolve, is characterized in that, the revolution vibration suppressing method comprises: detecting the vibration severity of the boom in the revolution direction; extracting dynamic characteristic parameters of the boom; calculating a control signal that can be used to control the revolving actuator to compensate the vibration severity according to the vibration severity and the dynamic characteristic parameters extracted; and driving the revolving actuator according to the control signal to move, to suppress the revolution vibration of the boom, wherein the boom comprises N boom sections, and the vibration severity is the vibration severity of the last boom section of the boom in the revolution direction. detecting the vibration severity of the boom in the revolution direction; extracting dynamic characteristic parameters of the boom; calculating a control signal that can be used to control the revolving actuator to compensate the vibration severity according to the vibration severity and the dynamic characteristic parameters extracted; and driving the revolving actuator according to the control signal to move, to suppress the revolution vibration of the boom, wherein the boom comprises N boom sections, and the vibration severity is the vibration severity of the last boom section of the boom in the revolution direction.
A type of wood section material manufacturing method includes the following steps: Wood preparation: process the wood with density lower or equal to 700kg/m 3 to wood panels; Drying: dry the wood panels to reduce their moisture content to 6-20%; Polishing: polish the dried wood panels to obtain panel blank material; Hot pressing: use two hot pressing panels with 140-200 °C to press two surfaces of the panel blank material; and characterized in that it also comprises: Pre-carbonization: pre-carbonize the panel blank material under 160-200 °C; Carbonization: carbonize the panel blank material under 200-225 °C; Cooling; Moisture content control; the hot pressing step is to place panel blank material on a hot press closing at the speed of 0.5-6mm/s, control the panel blank material compression ratio at 10-30% and pressure 20-50MPa, control the hot press temperature at 170-200 °C and maintain the temperature and pressure for 1min-40min, the said pre-carbonization step is to reduce the hot pressing panels temperature to 160-170 °C and maintain the temperature and pressure for 30min-120min after above process, the said carbonization step is to raise the hot pressing panels temperature to 200-225 °C and maintain the temperature and pressure for 45min-120 min after pre-carbonization. Wood preparation: process the wood with density lower or equal to 700kg/m 3 to wood panels; Drying: dry the wood panels to reduce their moisture content to 6-20%; Polishing: polish the dried wood panels to obtain panel blank material; Hot pressing: use two hot pressing panels with 140-200 °C to press two surfaces of the panel blank material; and characterized in that it also comprises: Pre-carbonization: pre-carbonize the panel blank material under 160-200 °C; Carbonization: carbonize the panel blank material under 200-225 °C; Cooling; Moisture content control; the hot pressing step is to place panel blank material on a hot press closing at the speed of 0.5-6mm/s, control the panel blank material compression ratio at 10-30% and pressure 20-50MPa, control the hot press temperature at 170-200 °C and maintain the temperature and pressure for 1min-40min, the said pre-carbonization step is to reduce the hot pressing panels temperature to 160-170 °C and maintain the temperature and pressure for 30min-120min after above process, the said carbonization step is to raise the hot pressing panels temperature to 200-225 °C and maintain the temperature and pressure for 45min-120 min after pre-carbonization.
A photography device, comprising: an image capturing device adapted to capture an image by capturing light entering the image capturing device from a field of view during an exposure time; a light source adapted to be arranged in the field of view of the image capturing device and to illuminate an object visible in the field of view; actuating means (130,150) adapted to move the light source in the field of view during the exposure time; an obscuring means adapted to obscure a portion of the field of view such that said portion is not visible for the image capturing device; actuating means (130,150) adapted to, during the exposure time, move the obscuring means such that: each position of the field of view is obscured by the obscuring means for an amount of time, wherein a relative difference between the times for obscuring the different positions of the field of view is 10% or less; and light from the light source is prevented from directly entering the image capturing device. an image capturing device adapted to capture an image by capturing light entering the image capturing device from a field of view during an exposure time; a light source adapted to be arranged in the field of view of the image capturing device and to illuminate an object visible in the field of view; actuating means (130,150) adapted to move the light source in the field of view during the exposure time; an obscuring means adapted to obscure a portion of the field of view such that said portion is not visible for the image capturing device; actuating means (130,150) adapted to, during the exposure time, move the obscuring means such that: each position of the field of view is obscured by the obscuring means for an amount of time, wherein a relative difference between the times for obscuring the different positions of the field of view is 10% or less; and light from the light source is prevented from directly entering the image capturing device. each position of the field of view is obscured by the obscuring means for an amount of time, wherein a relative difference between the times for obscuring the different positions of the field of view is 10% or less; and light from the light source is prevented from directly entering the image capturing device.
A high or medium voltage switch comprising a first terminal and a second terminal, a first set of contact elements (13a, 13b, 13c) and a second set of contact elements (14a, 14b, 14c) arranged between the first terminal and the second terminal, at least one drive (18,19) adapted to mutually displace the sets of contact elements (13a, 13b, 13c; 14a, 14b, 14c) along a displacement direction, wherein each contact element (13a, 13b, 13c; 14a, 14b, 14c) comprises an insulating carrier part carrying at least one conducting element, and wherein in a first mutual position of said contact elements (13a, 13b, 13c; 14a, 14b, 14c) the conducting elements of said contact elements (13a, 13b, 13c; 14a, 14b, 14c) form at least one conducting path in an axial direction between said first terminal and said second terminal in a direction transversally to said displacement direction, and wherein in a second mutual position of said contact elements (13a, 13b, 13c; 14a, 14b, 14c) the conducting elements are mutually displaced and do not form said conducting path, characterized in that the contact elements (13a, 13b, 13c; 14a, 14b, 14c) are contour-guided to move along a defined displacement path reducing or increasing the distance in axial direction between the conducting elements of neighboring contact elements (13a, 13b, 13c; 14a, 14b, 14c) during closing and opening of the switch.
Method for operating a power network comprising a multiplicity of network elements, having the steps of: sensing a state of the power network, deriving a plurality of switching actions for at least one network element from the sensed state of the power network in order to correct the sensed state of the power network, filtering the plurality of derived switching actions to a number of derived switching actions, and assigning the number of derived switching actions for the at least one network element in order to correct the sensed state of the power network, the filtering process comprising calculating physical effects in the power network for the plurality of derived switching actions, characterized in that the filtering process also comprises a consistency check in order to determine inconsistencies or filtering out logically contradictory switching instructions. sensing a state of the power network, deriving a plurality of switching actions for at least one network element from the sensed state of the power network in order to correct the sensed state of the power network, filtering the plurality of derived switching actions to a number of derived switching actions, and assigning the number of derived switching actions for the at least one network element in order to correct the sensed state of the power network, the filtering process comprising calculating physical effects in the power network for the plurality of derived switching actions, characterized in that the filtering process also comprises a consistency check in order to determine inconsistencies or filtering out logically contradictory switching instructions.
An air intake duct having a duct wall section formed of resin in form of tube and configured to introduce external air into an internal combustion engine or alternate power supply system, wherein - the duct wall section is provided with a silencing member formed of a lamination of a surface layer formed of a non-woven fabric to which thermosetting resin is impregnated and a ventilation adjusting layer formed of an extendable paper material having a surface in which a plurality of concave and convex portions are formed, - the silencing member comprises at least one pair of the surface layers on front and back surfaces of at least one pair of the ventilation adjusting layers, and an intermediate layer is formed between the paired ventilation adjusting layers, the intermediate layer being formed of a same material as that of the surface layer, - the duct wall section is mutually jointed by an anchor effect of the surface of the silencing member, - the silencing member is formed through the inster-molding process so as to be flush in its surface with the inner peripheral surface of the duct wall section, - a part of the duct wall section is formed from a grid-shaped frame so as to provide a number of holes to the duct wall section and the holes are closed by locating the silencing member so as to cover the holes, and - the grid-shaped frame is located only in the outer peripheral surface of the silencing member. - the duct wall section is provided with a silencing member formed of a lamination of a surface layer formed of a non-woven fabric to which thermosetting resin is impregnated and a ventilation adjusting layer formed of an extendable paper material having a surface in which a plurality of concave and convex portions are formed, - the silencing member comprises at least one pair of the surface layers on front and back surfaces of at least one pair of the ventilation adjusting layers, and an intermediate layer is formed between the paired ventilation adjusting layers, the intermediate layer being formed of a same material as that of the surface layer, - the duct wall section is mutually jointed by an anchor effect of the surface of the silencing member, - the silencing member is formed through the inster-molding process so as to be flush in its surface with the inner peripheral surface of the duct wall section, - a part of the duct wall section is formed from a grid-shaped frame so as to provide a number of holes to the duct wall section and the holes are closed by locating the silencing member so as to cover the holes, and - the grid-shaped frame is located only in the outer peripheral surface of the silencing member.
A positive active material for a lithium secondary battery comprising: a core particle comprising a compound capable of reversibly intercalating and deintercalating lithium ions; and a lithium ion conductive ceramic compound attached to a surface of the core particle and represented by Chemical Formula 1: [Chemical Formula 1] Li 1+x M x M 2-x Si y P 3-y O 12 wherein M and M are selected from the group consisting of Al, Zr, Hf, Ti, Ge, Sn, Cr, Nb, Ga, Fe, Sc, In, Y, La, Lu, and Mg, and 0<x≤0.7, 0≤y≤1, wherein the positive active material includes the core particle in an amount ranging from 97 wt% to 98 wt% and the lithium ion conductive ceramic compound in an amount ranging from 2 wt% to 3 wt% and characterised in that the compound represented by Chemical Formula 1 is attached to the core as a layer and discrete particles. a core particle comprising a compound capable of reversibly intercalating and deintercalating lithium ions; and a lithium ion conductive ceramic compound attached to a surface of the core particle and represented by Chemical Formula 1: [Chemical Formula 1] Li 1+x M x M 2-x Si y P 3-y O 12 wherein M and M are selected from the group consisting of Al, Zr, Hf, Ti, Ge, Sn, Cr, Nb, Ga, Fe, Sc, In, Y, La, Lu, and Mg, and 0<x≤0.7, 0≤y≤1, wherein the positive active material includes the core particle in an amount ranging from 97 wt% to 98 wt% and the lithium ion conductive ceramic compound in an amount ranging from 2 wt% to 3 wt% and characterised in that the compound represented by Chemical Formula 1 is attached to the core as a layer and discrete particles. wherein M and M are selected from the group consisting of Al, Zr, Hf, Ti, Ge, Sn, Cr, Nb, Ga, Fe, Sc, In, Y, La, Lu, and Mg, and 0<x≤0.7, 0≤y≤1, wherein the positive active material includes the core particle in an amount ranging from 97 wt% to 98 wt% and the lithium ion conductive ceramic compound in an amount ranging from 2 wt% to 3 wt% and characterised in that the compound represented by Chemical Formula 1 is attached to the core as a layer and discrete particles.
A graphite-copper composite electrode material comprising: a substrate comprising a graphite material and having pores; and copper impregnated in the pores of the substrate, the electrode material characterized by having an electrical resistivity of 2.5 μΩm or less, wherein the substrate comprising the graphite material has an anisotropy ratio of 1.2 or less, and an impregnation rate φ of the copper in the electrode material is 15% or greater, the impregnation rate φ being obtained by the following equation: φ = d B − d B, s / ρ Cu × 100, wherein d B is a bulk density of the electrode, d B,s is a bulk density of the substrate comprising the graphite material, and ρ Cu is the specific gravity of copper (ρ Cu = 8.96 Mg/m 3).