mhurhangee/patent-ind-claim-en huggingface dataset:
Multi-use container with wheels comprising an opening , a base , lateral walls and end faces , characterized in that it comprises: - a lower edge around the lateral walls and the end faces , - at least two wheels coupled to each external face of the lateral walls , close to the lower edge of the lateral walls and the lower corners of the container , and - recesses in the opening for receiving a lower part of the wheels of a container stacked on top, characterised in that the base projects from underneath the lower edge . - a lower edge around the lateral walls and the end faces , - at least two wheels coupled to each external face of the lateral walls , close to the lower edge of the lateral walls and the lower corners of the container , and - recesses in the opening for receiving a lower part of the wheels of a container stacked on top, characterised in that the base projects from underneath the lower edge .
An N-aralkylcarbonyldiamine compound having structure I noted below: wherein n = 2, R 1 is hydroxyl, R 2 is selected from cyclohexyl or cyclopentyl, R 3 is selected from the group consisting of C 1 -C 3 alkyl, and R 4 and R 5 are selected from the group consisting of C 1 -C 3 alkyl, wherein said alkyl group is linear, cyclic or branched; and amine salts thereof. wherein n = 2, R 1 is hydroxyl, R 2 is selected from cyclohexyl or cyclopentyl, R 3 is selected from the group consisting of C 1 -C 3 alkyl, and R 4 and R 5 are selected from the group consisting of C 1 -C 3 alkyl, wherein said alkyl group is linear, cyclic or branched; and amine salts thereof.
A system for identification of particles/cells comprising: at least one microfluidic channel configured to sustain a flow of a sample fluid through said microfluidic channel and carrying the particles/cells along the channel; at least one excitation electrode and at least one signal electrode, the excitation and signal electrodes being electrically coupled with each other via the flow of sample fluid in the microchannel; the at least one excitation electrode is connected to an AC voltage/current source operating at a frequency, ω, and the at least one signal electrode is connected to a detector measuring the signal at one or more frequencies set to an integer multiple, Nω, of the frequency ω, wherein the integer N is greater than one, characterised in that the system comprises means for determining the position and/or alignment of the particle/cell within the cross-section of the microfluidic channel using the amplitude and/or phase of the signal at the multiple frequency Nω. at least one microfluidic channel configured to sustain a flow of a sample fluid through said microfluidic channel and carrying the particles/cells along the channel; at least one excitation electrode and at least one signal electrode, the excitation and signal electrodes being electrically coupled with each other via the flow of sample fluid in the microchannel; the at least one excitation electrode is connected to an AC voltage/current source operating at a frequency, ω, and the at least one signal electrode is connected to a detector measuring the signal at one or more frequencies set to an integer multiple, Nω, of the frequency ω, wherein the integer N is greater than one, characterised in that the system comprises means for determining the position and/or alignment of the particle/cell within the cross-section of the microfluidic channel using the amplitude and/or phase of the signal at the multiple frequency Nω.
A method for catalyzing an enzyme-catalyzed reaction in chemical synthesis, comprising (a) providing a carrier and at least one enzyme immobilized on the carrier, wherein the carrier is a porous organic polymer material to which an affinity matrix containing a chelated metal ion is attached, wherein the at least one enzyme contains a polyhistidine tag and is immobilized on the carrier through specific affinity binding between the polyhistidine tag and the chelated metal ion; and (b) bringing the immobilized enzyme into contact with at least one substrate, thereby catalyzing the reaction, and wherein the enzyme-catalyzed reaction is a continuous flow reaction. (a) providing a carrier and at least one enzyme immobilized on the carrier, wherein the carrier is a porous organic polymer material to which an affinity matrix containing a chelated metal ion is attached, wherein the at least one enzyme contains a polyhistidine tag and is immobilized on the carrier through specific affinity binding between the polyhistidine tag and the chelated metal ion; and (b) bringing the immobilized enzyme into contact with at least one substrate, thereby catalyzing the reaction, wherein the carrier is a porous organic polymer material to which an affinity matrix containing a chelated metal ion is attached, wherein the at least one enzyme contains a polyhistidine tag and is immobilized on the carrier through specific affinity binding between the polyhistidine tag and the chelated metal ion; and (b) bringing the immobilized enzyme into contact with at least one substrate, thereby catalyzing the reaction,
A terminal comprising: a control section configured to scale a delay requirement of an intra-frequency measurement based on a synchronization signal block by a scaling factor corresponding to each of a plurality of carriers; and a receiving section configured to receive the synchronization signal block in each of the plurality of carriers, wherein the receiving section is configured to receive, from a base station , a parameter that indicates a periodicity of a measurement of the synchronization signal block for each of the plurality of carriers, the control section is configured to derive a measurement period for the intra-frequency measurement by multiplying a value based on the parameter by the scaling factor, the plurality of carriers includes a first carrier and a second carrier that is different from the first carrier, a first scaling factor for the first carrier out of the plurality of carriers is based on a number of the plurality of carriers, a second scaling factor, for the second carrier is not based on the number of the plurality of carriers, that is different from the first scaling factor, and the control section is configured to increase the delay requirement by using the first scaling factor and to increase the delay requirement by using the second scaling factor. a control section configured to scale a delay requirement of an intra-frequency measurement based on a synchronization signal block by a scaling factor corresponding to each of a plurality of carriers; and a receiving section configured to receive the synchronization signal block in each of the plurality of carriers, wherein the receiving section is configured to receive, from a base station , a parameter that indicates a periodicity of a measurement of the synchronization signal block for each of the plurality of carriers, the control section is configured to derive a measurement period for the intra-frequency measurement by multiplying a value based on the parameter by the scaling factor, the plurality of carriers includes a first carrier and a second carrier that is different from the first carrier, a first scaling factor for the first carrier out of the plurality of carriers is based on a number of the plurality of carriers, a second scaling factor, for the second carrier is not based on the number of the plurality of carriers, that is different from the first scaling factor, and the control section is configured to increase the delay requirement by using the first scaling factor and to increase the delay requirement by using the second scaling factor.
A chroma block prediction method for video coding, wherein the method comprises: obtaining a maximum luma value and a minimum luma value based on luma samples corresponding to neighboring samples of a target chroma block; if a first difference between the maximum luma value and the minimum luma value is greater than 0, processing the first difference to obtain a second difference, wherein the processing the first difference to obtain the second difference comprises: shifting , using a quantity of significant bits of the first difference and a first preset bit depth, the first difference to the right to obtain the second difference, wherein the quantity of significant bits of the first difference is obtained by Floor(Log2(Abs(A))), and wherein A represents the first difference; determining , based on a first chroma value corresponding to the maximum luma value, a second chroma value corresponding to the minimum luma value, and the second difference, an intra prediction model parameter corresponding to the target chroma block, wherein a chroma value of neighboring samples corresponding to luma samples to which the maximum luma value belongs is determined as the first chroma value, and a chroma value of neighboring samples corresponding to luma samples to which the minimum luma value belongs is determined as the second chroma value; and determining prediction information of the target chroma block based on the intra prediction model parameter and luma reconstruction information corresponding to the target chroma block. obtaining a maximum luma value and a minimum luma value based on luma samples corresponding to neighboring samples of a target chroma block; if a first difference between the maximum luma value and the minimum luma value is greater than 0, processing the first difference to obtain a second difference, wherein the processing the first difference to obtain the second difference comprises: shifting , using a quantity of significant bits of the first difference and a first preset bit depth, the first difference to the right to obtain the second difference, wherein the quantity of significant bits of the first difference is obtained by Floor(Log2(Abs(A))), and wherein A represents the first difference; determining , based on a first chroma value corresponding to the maximum luma value, a second chroma value corresponding to the minimum luma value, and the second difference, an intra prediction model parameter corresponding to the target chroma block, wherein a chroma value of neighboring samples corresponding to luma samples to which the maximum luma value belongs is determined as the first chroma value, and a chroma value of neighboring samples corresponding to luma samples to which the minimum luma value belongs is determined as the second chroma value; and determining prediction information of the target chroma block based on the intra prediction model parameter and luma reconstruction information corresponding to the target chroma block.
A display apparatus comprising: a display configured to display an image; and a supporter on which the display is mounted, the supporter configured to support the display and configured to rotate the display between a first position and a second position, wherein the supporter comprises: a drive motor configured to supply a driving force to rotate the display , a first gear configured to rotate together with the display by receiving the driving force from the drive motor ; and a detection sensor configured to detect a rotation amount of a second gear configured to rotate in association with the first gear , characterized in that the first gear comprises a first gear portion with a first tooth shape formed in a first section of the circumferential surface of the first gear and a second gear portion with a second tooth shape formed in a remaining section of the circumferential surface of the first gear , the first tooth shape and the second tooth shape being different. a display configured to display an image; and a supporter on which the display is mounted, the supporter configured to support the display and configured to rotate the display between a first position and a second position, wherein the supporter comprises: a drive motor configured to supply a driving force to rotate the display , a first gear configured to rotate together with the display by receiving the driving force from the drive motor ; and a detection sensor configured to detect a rotation amount of a second gear configured to rotate in association with the first gear , characterized in that the first gear comprises a first gear portion with a first tooth shape formed in a first section of the circumferential surface of the first gear and a second gear portion with a second tooth shape formed in a remaining section of the circumferential surface of the first gear , the first tooth shape and the second tooth shape being different. a drive motor configured to supply a driving force to rotate the display , a first gear configured to rotate together with the display by receiving the driving force from the drive motor ; and a detection sensor configured to detect a rotation amount of a second gear configured to rotate in association with the first gear , characterized in that the first gear comprises a first gear portion with a first tooth shape formed in a first section of the circumferential surface of the first gear and a second gear portion with a second tooth shape formed in a remaining section of the circumferential surface of the first gear , the first tooth shape and the second tooth shape being different.
A heat recovery steam generator comprising: a first casing having an enclosure that has an interior enclosing at least one first duct for gas to flow therein along a gas flow axis , each first duct being defined by duct defining members that are spaced apart from each other and extend into the interior of the first casing ; characterized in that it further comprises a plurality of stiffening members elongated along the gas flow axis ; each of the stiffening members positioned in the interior and positioned between two of the duct defining members ; and wherein the stiffening members and duct defining members have a substantially similar coefficient of thermal expansion. a first casing having an enclosure that has an interior enclosing at least one first duct for gas to flow therein along a gas flow axis , each first duct being defined by duct defining members that are spaced apart from each other and extend into the interior of the first casing ; characterized in that it further comprises a plurality of stiffening members elongated along the gas flow axis ; each of the stiffening members positioned in the interior and positioned between two of the duct defining members ; and wherein the stiffening members and duct defining members have a substantially similar coefficient of thermal expansion.
A combination of a blade clearance sensor and a radial flow separation wall of a gas turbine engine , wherein the blade clearance sensor is embedded in the radial flow separation wall , the radial flow separation wall comprising: a splitter hoop located radially outward from blades in a first flow path (FP1) within the gas turbine engine, the splitter hoop being about concentric to a blade path (BP1) of the blades , wherein a splitter hoop orifice is formed within the splitter hoop; and one or more guide vane bases attached to a guide vane located radially outward from the splitter hoop in a second flow path (FP2) within the gas turbine engine, each of the one or more guide vane bases being securely attached to a radially outward surface of the splitter hoop , wherein the blade clearance sensor is configured to detect a blade clearance between the blades and the splitter hoop , characterized in that at least one of the one or more guide vane bases includes a vane orifice within the one or more guide vane bases, wherein the vane orifice is aligned with the splitter hoop orifice and the blade clearance sensor is inserted into the vane orifice and the splitter hoop orifice . a splitter hoop located radially outward from blades in a first flow path (FP1) within the gas turbine engine, the splitter hoop being about concentric to a blade path (BP1) of the blades , wherein a splitter hoop orifice is formed within the splitter hoop; and one or more guide vane bases attached to a guide vane located radially outward from the splitter hoop in a second flow path (FP2) within the gas turbine engine, each of the one or more guide vane bases being securely attached to a radially outward surface of the splitter hoop , wherein the blade clearance sensor is configured to detect a blade clearance between the blades and the splitter hoop , characterized in that at least one of the one or more guide vane bases includes a vane orifice within the one or more guide vane bases, wherein the vane orifice is aligned with the splitter hoop orifice and the blade clearance sensor is inserted into the vane orifice and the splitter hoop orifice .
An organic light-emitting device (OLED) comprising: - a transparent substrate ; - a first, transparent electrode layer arranged on said substrate; - one or more organic light-active layers arranged on said first electrode layer; - a second electrode layer arranged on said one or more organic light-active layers; and - a discontinuous layer comprising discrete, nanometer-sized domains of a low refractive index material, arranged randomly distributed, in the plane of the OLED, between said first electrode layer and said one or more organic light-active layers, characterized in that said discrete, randomly distributed domains have an average width in the range of 1 to 500 nm, a refractive index lower than 1.8, wherein the average distance between two adjacent domains is 1 μm or less. - a transparent substrate ; - a first, transparent electrode layer arranged on said substrate; - one or more organic light-active layers arranged on said first electrode layer; - a second electrode layer arranged on said one or more organic light-active layers; and - a discontinuous layer comprising discrete, nanometer-sized domains of a low refractive index material, arranged randomly distributed, in the plane of the OLED, between said first electrode layer and said one or more organic light-active layers, characterized in that said discrete, randomly distributed domains have an average width in the range of 1 to 500 nm, a refractive index lower than 1.8, wherein the average distance between two adjacent domains is 1 μm or less.
A process for producing glycosaminoglycan (GAG) in a genetically modified cell, said process comprising the following steps: a) obtaining a cell comprising at least • an exogenous gene encoding a mammalian enzyme capable of exerting glucuronyl transferase activity on a beta-galactoside substrate, and the elements enabling the expression of said gene in said cell and the synthesis of glucuronyl beta-galactoside, • a gene encoding an enzyme capable of synthesizing said glycosaminoglycan from glucuronyl beta-galactoside, or the genes encoding the enzymes of the synthetic pathway of said glycosaminoglycan from glucuronyl beta-galactoside, and the elements enabling the expression of said gene(s) in said cell, • a gene encoding an enzyme capable of ensuring the internalization of exogenous beta-galactoside by the cell, and the elements enabling the expression of said gene in said cell, b) culturing said cell in the presence of exogenous beta-galactoside and under conditions compatible with the production of said glycosaminoglycan by said cell, wherein said cell is a bacterial cell. a) obtaining a cell comprising at least • an exogenous gene encoding a mammalian enzyme capable of exerting glucuronyl transferase activity on a beta-galactoside substrate, and the elements enabling the expression of said gene in said cell and the synthesis of glucuronyl beta-galactoside, • a gene encoding an enzyme capable of synthesizing said glycosaminoglycan from glucuronyl beta-galactoside, or the genes encoding the enzymes of the synthetic pathway of said glycosaminoglycan from glucuronyl beta-galactoside, and the elements enabling the expression of said gene(s) in said cell, • a gene encoding an enzyme capable of ensuring the internalization of exogenous beta-galactoside by the cell, and the elements enabling the expression of said gene in said cell, • an exogenous gene encoding a mammalian enzyme capable of exerting glucuronyl transferase activity on a beta-galactoside substrate, and the elements enabling the expression of said gene in said cell and the synthesis of glucuronyl beta-galactoside, • a gene encoding an enzyme capable of synthesizing said glycosaminoglycan from glucuronyl beta-galactoside, or the genes encoding the enzymes of the synthetic pathway of said glycosaminoglycan from glucuronyl beta-galactoside, and the elements enabling the expression of said gene(s) in said cell, • a gene encoding an enzyme capable of ensuring the internalization of exogenous beta-galactoside by the cell, and the elements enabling the expression of said gene in said cell, b) culturing said cell in the presence of exogenous beta-galactoside and under conditions compatible with the production of said glycosaminoglycan by said cell, wherein said cell is a bacterial cell.
System for take-off of at least one drone from a shelter intended to store at least one drone, said system comprising a ground control station , a plurality of drones whose movements are controlled by said control station and, at least one detector associated with a particular location on the ground, the station comprising at least one means for communicating with the at least one drone to transmit a signal for triggering take-off from the shelter, the at least one detector comprising a means for transmitting to the control station an event detection signal associated with an unforeseen event unfolding at the particular location, the reception by the control station of the event detection signal triggering the signal for triggering take-off to travel in a trajectory passing at least through the particular location on the ground where the event has taken place, characterised in that the drones transmit signals representing their current operation, such as the battery charge and their positions, the station calculating the necessary inbound travel time to return to the take-off location and the outbound travel time for a new drone to reach the site of the event, the station transmitting a take-off signal to a second drone located in the shelter when the battery charge of the drone flying over the particular location does not allow it to remain in flight for a period at least equal to the total accumulated outbound and inbound travel time, the station transmitting a return-to-the-shelter signal to the drone flying over the particular location when the second drone arrives at the particular location.