mhurhangee/patent-ind-claim-en huggingface dataset:
A laser processing machine for processing a workpiece by means of a laser beam , comprising: a nozzle changer for mounting and/or demounting nozzles to/from a processing head of the laser processing machine , the nozzle changer having a plurality of nozzle holders for holding nozzles , characterized in that the laser processing machine has a protective enclosure for closing off a working space for the processing of the workpiece with the laser beam from a working space surrounding area , and in that the nozzle changer is movable between a nozzle changing position (WP) within the protective enclosure and a setup position (RP) outside the protective enclosure . a nozzle changer for mounting and/or demounting nozzles to/from a processing head of the laser processing machine , the nozzle changer having a plurality of nozzle holders for holding nozzles , characterized in that the laser processing machine has a protective enclosure for closing off a working space for the processing of the workpiece with the laser beam from a working space surrounding area , and in that the nozzle changer is movable between a nozzle changing position (WP) within the protective enclosure and a setup position (RP) outside the protective enclosure .
Cooling device for cooling power electronics of a battery system comprising a plurality of battery cells , the cooling device having a cooling channel with a cooling channel base , with a cooling channel top , and with at least one cooling channel wall , wherein the power electronics are connectable in a heat-transferring manner to the cooling channel top on a side of the cooling channel top facing away from the cooling channel , wherein the cooling device has an inlet port for inflow of a cooling liquid (K) into the cooling channel and an outlet port for outflow of the cooling liquid (K) from the cooling channel , characterized in that the cooling channel top has a base surface and at least one elevation on the side facing the cooling channel , wherein the elevation forms a venting space , and wherein the cooling device has a venting interface for venting the venting space .
A device for the detection of one or more analytes in a sample obtained from a subject, the device comprising: a) a surface to conduct at least one detection reaction, the surface comprising: a detection region comprising one or more epitope binding agents; and a reference region comprising the same one or more epitope binding agents, wherein each epitope binding agent is configured to bind exclusively to one of the at least one analytes, wherein the detection region is separate from the reference region; b) one or more detection sensors to sense light associated with the detection region; c) one or more reference sensors to sense light associated with the reference region; and wherein the device is configured such that the difference between the signal generated from the detection region and the reference region is set to zero prior to addition of the sample. a) a surface to conduct at least one detection reaction, the surface comprising: a detection region comprising one or more epitope binding agents; and a reference region comprising the same one or more epitope binding agents, wherein each epitope binding agent is configured to bind exclusively to one of the at least one analytes, wherein the detection region is separate from the reference region; b) one or more detection sensors to sense light associated with the detection region; c) one or more reference sensors to sense light associated with the reference region; and
A robot for underwater monitoring and maintenance of a ship's hull when the ship is underway, where the robot comprises a main body having a front part and a rear end connected with a middle part, a connector for connecting the robot to a cable for towing the robot is arranged to the front part of the main body , a resting base adapted to rest against the ship's hull and being arranged along the full length of the main body , one or more hydrofoil(s) arranged perpendicular to the length axis of the main body arranged to force the resting base of the robot towards the ship's hull , a rudder arranged at the front part of the main body , perpendicular to the length axis of the main body and the hydrofoil(s) , characterised in that the main body is a straight and elongated body having a length to width ratio of 5 or more, and in that the length of said one or more hydrofoil(s) as seen perpendicular to the main body , is / are longer than the width of the main body , and in that the connector for the cable is arranged at one end of a hydrofoil , or at an arm extending parallel with the one or more hydrofoil(s). a main body having a front part and a rear end connected with a middle part, a connector for connecting the robot to a cable for towing the robot is arranged to the front part of the main body , a resting base adapted to rest against the ship's hull and being arranged along the full length of the main body , one or more hydrofoil(s) arranged perpendicular to the length axis of the main body arranged to force the resting base of the robot towards the ship's hull , a rudder arranged at the front part of the main body , perpendicular to the length axis of the main body and the hydrofoil(s) , characterised in that the main body is a straight and elongated body having a length to width ratio of 5 or more, and in that the length of said one or more hydrofoil(s) as seen perpendicular to the main body , is / are longer than the width of the main body , and in that the connector for the cable is arranged at one end of a hydrofoil , or at an arm extending parallel with the one or more hydrofoil(s).
A method of forming an electrode, the method comprising: providing a first reservoir containing a first dispersion, wherein the first dispersion comprises a first ionomer, a catalyst powder containing carbon, and a first solvent; providing a second reservoir containing a second dispersion, wherein the second dispersion comprises a second ionomer and a second solvent; applying an electrical bias between a substrate and a first needle in fluid communication with the first reservoir and the second reservoir; and pumping the first dispersion from the first reservoir and the second dispersion from the second reservoir through the first needle towards a first surface of the substrate to form a plurality of structured units on a surface of the substrate, wherein the first needle comprises a first cannula and a second cannula, wherein the first dispersion passes through the first cannula, wherein the second dispersion passes through the second cannula, wherein the first cannula and the second cannula are positioned coaxially within the first needle, wherein the plurality of structured units are configured with an inner core having a first radius and an outer core having a second radius and concentrically surrounding the inner core, and wherein a first ratio of ionomer to carbon at the first radius of at least one of the structured units is between 0.1 and 0.9, and a second ratio of ionomer to carbon at the second radius of the at least one of the structured units is between 0.9 and 5. providing a first reservoir containing a first dispersion, wherein the first dispersion comprises a first ionomer, a catalyst powder containing carbon, and a first solvent; providing a second reservoir containing a second dispersion, wherein the second dispersion comprises a second ionomer and a second solvent; applying an electrical bias between a substrate and a first needle in fluid communication with the first reservoir and the second reservoir; and pumping the first dispersion from the first reservoir and the second dispersion from the second reservoir through the first needle towards a first surface of the substrate to form a plurality of structured units on a surface of the substrate, wherein the first needle comprises a first cannula and a second cannula, wherein the first dispersion passes through the first cannula, wherein the second dispersion passes through the second cannula, wherein the first cannula and the second cannula are positioned coaxially within the first needle, wherein the plurality of structured units are configured with an inner core having a first radius and an outer core having a second radius and concentrically surrounding the inner core, and wherein a first ratio of ionomer to carbon at the first radius of at least one of the structured units is between 0.1 and 0.9, and a second ratio of ionomer to carbon at the second radius of the at least one of the structured units is between 0.9 and 5.
Air treatment unit intended to dry an airflow entering into the unit comprising an absorber , a generator , a condenser , an evaporator and a fluid circulation circuit capable of receiving a working solution comprising a refrigerant fluid and an absorbent, the fluid circuit connecting the generator to the condenser , the condenser to the evaporator , the evaporator to the absorber and the absorber to the generator , and wherein - the generator is configured to vaporise the refrigerant fluid of the working solution, - the condenser is configured to condense the refrigerant fluid to the vapour state coming from the generator , - the evaporator is configured to vaporise the refrigerant fluid coming from the condenser , - the absorber is configured to condense the refrigerant fluid to the vapour state coming from the evaporator to enable its absorption by the working solution, where the evaporator comprises at least one humid cold battery intended to dry and cool an airflow entering through the direct exchange with the refrigerant fluid and the condenser comprises a hot battery intended to heat a dried and cooled airflow coming from the evaporator by direct exchange with the refrigerant fluid, characterised in that the treatment unit comprises a technical compartment , wherein the generator and the absorber and an air circulation compartment are arranged, configured to receive an ascending airflow, and wherein the evaporator and the condenser are arranged, the condenser being arranged above the evaporator , the condenser being arranged at a same height level as the generator , and the evaporator being arranged at a same height level as the absorber . - the generator is configured to vaporise the refrigerant fluid of the working solution, - the condenser is configured to condense the refrigerant fluid to the vapour state coming from the generator , - the evaporator is configured to vaporise the refrigerant fluid coming from the condenser , - the absorber is configured to condense the refrigerant fluid to the vapour state coming from the evaporator to enable its absorption by the working solution,
A sodium salt of Compound X for use in treating Alzheimer's Disease.
A switch cabinet having a substantially cuboidal interior space which is limited by a plurality of flat parts arranged in horizontal and vertical planes, at least one of the flat parts being at least partially covered on its side facing the interior space with a foil which absorbs electromagnetic waves, characterized in that the foil comprises magnetic particles whose proportion is at or beyond the percolation threshold, the foil comprising at least two layers, the layers having different compositions of the magnetic particles.
A method for coating an ophthalmic lens in the primary package comprising the steps of: (a1) forming a first polyionic coating solution from at least one positively charged polyionic material, and forming a second polyionic coating solution from at least one negatively charged polyionic material, or (a2) forming a first polyionic coating solution from at least one negatively charged polyionic material, and forming a second polyionic coating solution from at least one positively charged polyionic material, (c) forming a coating on an ophthalmic lens by contacting said ophthalmic lens in the primary package with said first solution, and adding said second solution to said first solution, wherein said coating comprises said negatively charged material and said positively charged material; (d) sealing the primary package; (e) maintaining said coated ophthalmic lens in said primary package with the remaining after-coating solution until insertion of the ophthalmic lens in the eye of the ophthalmic lens user; characterized in that the molar charge ratio of said at least one negatively charged polyionic material and at least one positively charged polyionic material is from 1:100 to 100:1, in that the polyionic coating solutions have a pH of from 2.0 to 6.0, and in that after forming the coating on said ophthalmic lens and before sealing the primary package, a tablet (T) for adjusting the pH in the primary package to a pH in the range of from 6.7 to 7.7 is added. (a1) forming a first polyionic coating solution from at least one positively charged polyionic material, and forming a second polyionic coating solution from at least one negatively charged polyionic material, or (a2) forming a first polyionic coating solution from at least one negatively charged polyionic material, and forming a second polyionic coating solution from at least one positively charged polyionic material, (c) forming a coating on an ophthalmic lens by contacting said ophthalmic lens in the primary package with said first solution, and adding said second solution to said first solution, wherein said coating comprises said negatively charged material and said positively charged material; (d) sealing the primary package; (e) maintaining said coated ophthalmic lens in said primary package with the remaining after-coating solution until insertion of the ophthalmic lens in the eye of the ophthalmic lens user;
A memory device comprising: a substrate ; a plurality of metal/dielectric tiers arranged over the substrate , each of the metal/dielectric tiers including a metal layer and an inter-metal dielectric layer , wherein the metal layer includes tungsten; a via contact arranged through the metal/dielectric tiers , and a spacer arranged between the metal/dielectric tiers and the via contact , the spacer including a composite-dielectric layer including a composite-dielectric material, and a composition of the composite-dielectric material being a mixture of a composition of a first dielectric material and a composition of a second dielectric material different from the first dielectric material, wherein the first dielectric material includes zirconium oxide; the second dielectric material includes silicon oxide; and the composite-dielectric material includes zirconium-oxygen-silicon composite oxide, characterised in that a mole ratio of zirconium to silicon in the zirconium-oxygen-silicon composite oxide is in a range from 0.3 to 0.7. a substrate ; a plurality of metal/dielectric tiers arranged over the substrate , each of the metal/dielectric tiers including a metal layer and an inter-metal dielectric layer , wherein the metal layer includes tungsten; a via contact arranged through the metal/dielectric tiers , and a spacer arranged between the metal/dielectric tiers and the via contact , the spacer including a composite-dielectric layer including a composite-dielectric material, and a composition of the composite-dielectric material being a mixture of a composition of a first dielectric material and a composition of a second dielectric material different from the first dielectric material, wherein the first dielectric material includes zirconium oxide; the second dielectric material includes silicon oxide; and the composite-dielectric material includes zirconium-oxygen-silicon composite oxide, characterised in that a mole ratio of zirconium to silicon in the zirconium-oxygen-silicon composite oxide is in a range from 0.3 to 0.7.
A digital front end, DFE , for a direct digital radio frequency modulator (DDRM), the DFE comprising: an up-sampling unit , configured to provide an up-sampled 4-phase digital baseband, DBB, signal comprising in-phase (I) and quadrature (Q) information ; and a conversion unit , configured to convert the up-sampled 4-phase DBB signal to an 8-phase DBB signal , characterized in that the up-sampling unit comprises at least one of an integer up-sampler having an integer up-sampling ratio and a fractional up-sampler having a non-integer up-sampling ratio, wherein the conversion unit is configured to suppress an undesired image signal caused by a phase error of the DFE , in particular due to the phase conversion of the conversion unit , wherein the conversion unit comprises a delay element configured to delay the quadrature information (Q) of the up-sampled 4-phase DBB signal ; wherein the conversion unit is configured to provide delayed versions (A",B") of in-phase and quadrature information of the 8-phase DBB signal based on the delayed quadrature information (Q) of the 4-phase DBB signal , and wherein the conversion unit comprises a multiplexer configured to multiplex between switching the in-phase and quadrature information (A', B') of the 8-phase DBB signal and their delayed versions (A", B") to the in-phase and quadrature information (A, B) of the 8-phase DBB signal . an up-sampling unit , configured to provide an up-sampled 4-phase digital baseband, DBB, signal comprising in-phase (I) and quadrature (Q) information ; and a conversion unit , configured to convert the up-sampled 4-phase DBB signal to an 8-phase DBB signal , characterized in that the up-sampling unit comprises at least one of an integer up-sampler having an integer up-sampling ratio and a fractional up-sampler having a non-integer up-sampling ratio, wherein the conversion unit is configured to suppress an undesired image signal caused by a phase error of the DFE , in particular due to the phase conversion of the conversion unit , wherein the conversion unit comprises a delay element configured to delay the quadrature information (Q) of the up-sampled 4-phase DBB signal ; wherein the conversion unit is configured to provide delayed versions (A",B") of in-phase and quadrature information of the 8-phase DBB signal based on the delayed quadrature information (Q) of the 4-phase DBB signal , and wherein the conversion unit comprises a multiplexer configured to multiplex between switching the in-phase and quadrature information (A', B') of the 8-phase DBB signal and their delayed versions (A", B") to the in-phase and quadrature information (A, B) of the 8-phase DBB signal .
Device for attaching a coupling device to a free-floating object , for example free-floating articles or free-floating persons, comprising: - at least one first connection end which can be connected to a load-receiving end of a lifting device ; - a coupling device for attaching to a free-floating object ; - a load-receiving connection between the first connection end and the coupling device ; characterized by - a guiding device separate to the load-receiving connection , which guiding device connects the first connection end to the coupling device and which is configured to guide the coupling device relative to the first connection end . - at least one first connection end which can be connected to a load-receiving end of a lifting device ; - a coupling device for attaching to a free-floating object ; - a load-receiving connection between the first connection end and the coupling device ; characterized by - a guiding device separate to the load-receiving connection , which guiding device connects the first connection end to the coupling device and which is configured to guide the coupling device relative to the first connection end .
A device for opening and closing an opening in the bottom of a pool intended for containing irradiated fuel able to be transferred into a container located below the opening , comprising a cover and a structure suitable for being housed in the pool and making it possible to move the cover between a closed position and an open position of the opening , the structure comprising a frame suitable for being mounted with controlled pivoting along a vertical axis (Y-Y') on a wall of the pool and supporting a vertical mast bearing the cover at its lower end and which can be controlled in vertically guided movement relative to the support frame , when the latter occupies a position in which the vertical mast is substantially coaxial to the opening above the latter, between a low position in which the cover closes off the opening and a high position in which the cover is raised to a cleared position above the opening .
An online dry powder A-and-dry powder B dispensing device for blood purification, characterized by comprising a casing , wherein two connecting slide blocks are movably connected in the casing , the two connecting slide blocks are oppositely disposed, a machine interface is respectively provided on the connecting slide blocks , a preparation interface is respectively provided on two opposite faces of the two connecting slide blocks , and the preparation interfaces on the two connecting slide blocks correspond in position; further comprising a connector detachably connected to the casing , wherein the connector is located between the two connecting slide blocks , one side, facing the two connecting slide blocks , of the connector is respectively provided with a consumable interface , and the consumable interface matches the position of the preparation interface on the corresponding side; and further comprising a dry powder container A and a dry powder container B , wherein the dry powder container A and the dry powder container B are respectively in communication with the connector via a pipeline. further comprising a connector detachably connected to the casing , wherein the connector is located between the two connecting slide blocks , one side, facing the two connecting slide blocks , of the connector is respectively provided with a consumable interface , and the consumable interface matches the position of the preparation interface on the corresponding side; and further comprising a dry powder container A and a dry powder container B , wherein the dry powder container A and the dry powder container B are respectively in communication with the connector via a pipeline.