mhurhangee/patent-ind-claim-en huggingface dataset:
A decorative sheet comprising a base material and a surface-protecting layer, wherein at least one of the base material and the surface-protecting layer contains a white pigment, the surface-protecting layer is a cured product of a curable resin composition, and a Martens hardness of the decorative sheet is 9 N/mm 2 or more and 25 N/mm 2 or less, wherein the white pigment is at least one selected from the group consisting of rutile type titanium oxide, white lead, and antimony white, and wherein the Martens hardness of the decorative sheet is determined as described in the description.
Exhaust air duct for exhausting exhaust air from a pneumatically driven pump, in particular from a coating agent pump in a painting plant, with a) an inlet for receiving the exhaust air from the pump, b) an outlet for discharging the exhaust air, and c) an exhaust air duct in which the exhaust air flows from the inlet to the outlet of the exhaust air duct, and d) a housing body in which the exhaust air duct runs, e) a silencer connected to the outlet of the exhaust air duct so that the exhaust air flows from the outlet of the exhaust air duct into the silencer , then expands in the silencer and finally is discharged from the silencer into the environment, and f) a switching unit for switching over the pump, in particular between opposite directions of movement of a pneumatically driven piston of the pump, wherein the switching unit is arranged in the housing body and the exhaust air duct extends through the switching unit towards the silencer , g) wherein the switching unit is mechanically connected to the silencer by a first thermal insulation element , h) wherein the exhaust air duct is passing through the first thermal insulation element to the silencer ; and i) wherein the first thermal insulation element thermally decouples the silencer from the switching unit to reduce heat transfer from the switching unit to the silencer , characterized j) in that the switching unit has a diaphragm valve with an elastic diaphragm , the elastic diaphragm forming a second thermal insulation element. a) an inlet for receiving the exhaust air from the pump, b) an outlet for discharging the exhaust air, and c) an exhaust air duct in which the exhaust air flows from the inlet to the outlet of the exhaust air duct, and d) a housing body in which the exhaust air duct runs, e) a silencer connected to the outlet of the exhaust air duct so that the exhaust air flows from the outlet of the exhaust air duct into the silencer , then expands in the silencer and finally is discharged from the silencer into the environment, and f) a switching unit for switching over the pump, in particular between opposite directions of movement of a pneumatically driven piston of the pump, wherein the switching unit is arranged in the housing body and the exhaust air duct extends through the switching unit towards the silencer , g) wherein the switching unit is mechanically connected to the silencer by a first thermal insulation element , h) wherein the exhaust air duct is passing through the first thermal insulation element to the silencer ; and i) wherein the first thermal insulation element thermally decouples the silencer from the switching unit to reduce heat transfer from the switching unit to the silencer , characterized j) in that the switching unit has a diaphragm valve with an elastic diaphragm , the elastic diaphragm forming a second thermal insulation element.
A method configured to clip a signal according to a clipping boundary, wherein the signal comprises an I component comprising a series of I values and a Q component comprising a series of Q values, wherein each I value and Q value pair defines Cartesian coordinates of a data point being transmitted on the real and imaginary axes of the complex plane, respectively, the method comprising: receiving an I value and a Q value; determining a magnitude of the I value ; determining a magnitude of the Q value ; determining a clipping error as a vector distance between a first point defined by the magnitude of the I value and the magnitude of the Q value and a nearest point on the clipping boundary to the first point; filtering the clipping error to generate a filtered clipping error; combining the filtered clipping error with the I value to generate a clipped I value; and combining the filtered clipping error with the Q value to generate a clipped Q value; and wherein if the clipped I value or the clipped Q value exceeds a hard clipping limit, subsequently clipping the clipped I value or the clipped Q value that exceeds the hard clipping limit; providing the clipped I value and the clipped Q value to a radio frequency digital-to-analog converter, RFDAC, in a transmit chain. receiving an I value and a Q value; determining a magnitude of the I value ; determining a magnitude of the Q value ; determining a clipping error as a vector distance between a first point defined by the magnitude of the I value and the magnitude of the Q value and a nearest point on the clipping boundary to the first point; filtering the clipping error to generate a filtered clipping error; combining the filtered clipping error with the I value to generate a clipped I value; and combining the filtered clipping error with the Q value to generate a clipped Q value; and wherein if the clipped I value or the clipped Q value exceeds a hard clipping limit, subsequently clipping the clipped I value or the clipped Q value that exceeds the hard clipping limit; providing the clipped I value and the clipped Q value to a radio frequency digital-to-analog converter, RFDAC, in a transmit chain.
A method performed by a first unit for handling a connection between the first unit and multiple second units in a wireless communications network , the method comprising: obtaining from each of the multiple second units a respective indication of which one or more version of NR User plane protocol, NR-U, it supports, and deciding which version of NR-U that is possible to use for the connection based on the indications received from the multiple second units , wherein the first unit is represented by a Central Unit, CU, and the multiple second units are represented by one or more Distributed Units, DUs. obtaining from each of the multiple second units a respective indication of which one or more version of NR User plane protocol, NR-U, it supports, and deciding which version of NR-U that is possible to use for the connection based on the indications received from the multiple second units , wherein the first unit is represented by a Central Unit, CU, and the multiple second units are represented by one or more Distributed Units, DUs.
A process for preparing a catalyst, wherein said process comprises : (i) preparing a mixture of one or more aromatic alcohol monomers and/or non-aromatic monomers, solvent, polymerization catalyst, crosslinking agent, suspension stabilizing agent and one or more metal salts, under conditions sufficient to produce polymeric beads doped with one or more metals or salts thereof; (ii) carbonizing, activating and then reducing the polymeric beads produced in step (i) to produce metal nanoparticles-doped porous carbon beads; (iii) subjecting the metal nanoparticles-doped porous carbon beads produced in step (ii) to chemical vapour deposition in the presence of a carbon source to produce metal nanoparticles-doped porous carbon beads comprising carbon nanofibers; and (iv) doping the metal nanoparticles-doped porous carbon beads comprising carbon nanofibers produced in step (iii) with an oxidant by mixing the beads with an aqueous solution comprising the oxidant at a temperature in the range of from 40 to 60 °C for a period of from 4 to 12 hours, wherein after mixing, the catalyst is filtered and dried. (i) preparing a mixture of one or more aromatic alcohol monomers and/or non-aromatic monomers, solvent, polymerization catalyst, crosslinking agent, suspension stabilizing agent and one or more metal salts, under conditions sufficient to produce polymeric beads doped with one or more metals or salts thereof; (ii) carbonizing, activating and then reducing the polymeric beads produced in step (i) to produce metal nanoparticles-doped porous carbon beads; (iii) subjecting the metal nanoparticles-doped porous carbon beads produced in step (ii) to chemical vapour deposition in the presence of a carbon source to produce metal nanoparticles-doped porous carbon beads comprising carbon nanofibers; and (iv) doping the metal nanoparticles-doped porous carbon beads comprising carbon nanofibers produced in step (iii) with an oxidant by mixing the beads with an aqueous solution comprising the oxidant at a temperature in the range of from 40 to 60 °C for a period of from 4 to 12 hours, wherein after mixing, the catalyst is filtered and dried.
A mast for a naval platform, the upper end of which comprises at least one rotating antenna , the rotating antenna being a primary connection antenna for an on-board drone placed alone in a radome , the base of which is fixed to the rest of the mast and the top of which has a flattened top portion for fixing a mast supporting at least one fixed antenna .
A cooktop , comprising: a cover plate having at least one hotplate, and a cooktop bottom , wherein the cover plate is connected in a force-transmitting manner to the cooktop bottom in a mounted state of the cooktop by means of at least one connecting strip arranged on the cover plate and by means of at least one connecting means arranged on the cooktop bottom and designed so as to correspond to the connecting strip , a cross section of the connecting strip is designed as a latch profile and the connecting means is designed as a latch means corresponding to the latch profile , wherein the latch means is in latching engagement with the latch profile when the cooktop is in the mounted state, wherein the locking profile and the locking means are designed to match such that the locking profile can be manually locked with the locking means when bringing the cooktop into its mounted state, wherein locking of the locking profile with the locking means in the mounted state of the cooktop can only be released by means of a tool, in particular a tool designed as a flat-blade screwdriver , characterized in that at least one tool opening is formed in the cooktop bottom such that, in order to release the locking, it is merely necessary to insert the tool into the tool opening and to rotate the tool in the tool opening . a cover plate having at least one hotplate, and a cooktop bottom , wherein the cover plate is connected in a force-transmitting manner to the cooktop bottom in a mounted state of the cooktop by means of at least one connecting strip arranged on the cover plate and by means of at least one connecting means arranged on the cooktop bottom and designed so as to correspond to the connecting strip , a cross section of the connecting strip is designed as a latch profile and the connecting means is designed as a latch means corresponding to the latch profile , wherein the latch means is in latching engagement with the latch profile when the cooktop is in the mounted state, wherein the locking profile and the locking means are designed to match such that the locking profile can be manually locked with the locking means when bringing the cooktop into its mounted state, wherein locking of the locking profile with the locking means in the mounted state of the cooktop can only be released by means of a tool, in particular a tool designed as a flat-blade screwdriver , characterized in that at least one tool opening is formed in the cooktop bottom such that, in order to release the locking, it is merely necessary to insert the tool into the tool opening and to rotate the tool in the tool opening .
A stable aqueous pharmaceutical formulation, the formulation comprising a monoclonal antibody, trehalose, and a buffer, wherein the weight ratio of said monoclonal antibody to said trehalose in the formulation is 1.65 to 4.95, and, wherein said trehalose in the formulation is 40 mM to 80 mM, wherein said buffer is in an amount of 15 mM to 35 mM, wherein the formulation comprises a surfactant in a concentration of 0.01 % to 0.1 %, wherein the formulation has a pH of 5.5 to 6.5, wherein the antibody is obinutuzumab, wherein said monoclonal antibody in the formulation is 35 mg/mL to 75 mg/mL, wherein the buffer is histidine, wherein said surfactant is poloxamer 188.
A liquid discharge head comprising: a recording element substrate including a discharge port configured to discharge a liquid; a channel member configured to support the recording element substrate and supply the recording element substrate with the liquid; an electric wiring board placed on the channel member in such a manner that the electric wiring board extends in a longitudinal direction (Y) of the liquid discharge head , the electric wiring board being configured to supply the recording element substrate with power; and a plate-like protective member directly or indirectly fixed to the channel member to cover the electric wiring board , wherein in a case where a direction (Z) in which the recording element substrate is viewed from the channel member is defined as downward, the protective member includes a first bent portion configured to be bent in a transverse direction (X) of the liquid discharge head , the transverse direction (X) being oblique or perpendicular to the direction (Z), the first bent portion being located at a position that is above an upper end of the channel member in the direction, characterized in that the first bent portion is located at a position that is below a midpoint of a line segment connecting the upper end of the channel member and an upper end of the protective member in the direction. a recording element substrate including a discharge port configured to discharge a liquid; a channel member configured to support the recording element substrate and supply the recording element substrate with the liquid; an electric wiring board placed on the channel member in such a manner that the electric wiring board extends in a longitudinal direction (Y) of the liquid discharge head , the electric wiring board being configured to supply the recording element substrate with power; and a plate-like protective member directly or indirectly fixed to the channel member to cover the electric wiring board , wherein in a case where a direction (Z) in which the recording element substrate is viewed from the channel member is defined as downward, the protective member includes a first bent portion configured to be bent in a transverse direction (X) of the liquid discharge head , the transverse direction (X) being oblique or perpendicular to the direction (Z), the first bent portion being located at a position that is above an upper end of the channel member in the direction, characterized in that the first bent portion is located at a position that is below a midpoint of a line segment connecting the upper end of the channel member and an upper end of the protective member in the direction.
A frameless photo-energy assembly including a photo-energy converter, wherein an edge of the photo-energy converter is sealed by an adhesive tape, wherein the adhesive tape comprises: an adhering layer for adhesion and cushioning contacting the edge of the photo-energy converter and comprising: a substrate layer; a second adhesive layer on the substrate layer; an aging-resistant protective layer on the adhering layer comprising: a film layer; a water-proof intermediate layer, situated between the second adhesive layer and the protective layer, wherein the water-proof intermediate layer comprises a material selected from the group consisting of a metal, a rubber, polyurethane, and combinations thereof, and wherein the water-proof layer passes the creepage test according to IEC61215 after being subjected to 10 cycles for the humidity freeze cycle at -40°C-+85°C/85% relative humidity and 1000 hours for the high temperature-high humidity aging at +85°C/85% relative humidity. an adhering layer for adhesion and cushioning contacting the edge of the photo-energy converter and comprising: a substrate layer; a second adhesive layer on the substrate layer; a substrate layer; a second adhesive layer on the substrate layer; an aging-resistant protective layer on the adhering layer comprising: a film layer; a water-proof intermediate layer, situated between the second adhesive layer and the protective layer, wherein the water-proof intermediate layer comprises a material selected from the group consisting of a metal, a rubber, polyurethane, and combinations thereof, and wherein the water-proof layer passes the creepage test according to IEC61215 after being subjected to 10 cycles for the humidity freeze cycle at -40°C-+85°C/85% relative humidity and 1000 hours for the high temperature-high humidity aging at +85°C/85% relative humidity.
A method for monitoring a generator cable of a generator system including a prime mover and an alternator: receiving (S101) a first signal indicative of a generator output and a first connection of a generator cable to the generator system ; receiving (S103) a second signal indicative of a second connection of the generator cable to a load ; calculating (S105) a characteristic value being a resistance for the generator cable based on the first signal and the second signal; receiving temperature data for the generator cable , with a look-up table associating different metals of the cable to different thermal coefficients; querying the look-up table to select the thermal coefficient for the generator cable based on an input setting; calculating a resistance threshold value from the temperature data and at least one generator cable property value in the form of the thermal coefficient selected from the look-up table; performing (S107) a comparison of the characteristic value for the generator cable in the form of its resistance to the resistance threshold value calculated from the temperature data; and generating (S109) a generator status message or a generator command in response to the comparison. receiving (S101) a first signal indicative of a generator output and a first connection of a generator cable to the generator system ; receiving (S103) a second signal indicative of a second connection of the generator cable to a load ; calculating (S105) a characteristic value being a resistance for the generator cable based on the first signal and the second signal; receiving temperature data for the generator cable , with a look-up table associating different metals of the cable to different thermal coefficients; querying the look-up table to select the thermal coefficient for the generator cable based on an input setting; calculating a resistance threshold value from the temperature data and at least one generator cable property value in the form of the thermal coefficient selected from the look-up table; performing (S107) a comparison of the characteristic value for the generator cable in the form of its resistance to the resistance threshold value calculated from the temperature data; and generating (S109) a generator status message or a generator command in response to the comparison.
A terminal device , comprising a touch display screen , having a preset area, the preset area comprising an ordinary pixel set and a standby pixel set, wherein pixels contained in the ordinary pixel set are controlled to emit light when the touch display screen is in a state for display or in a special state for fingerprint collection, and pixels contained in the standby pixel set are controlled to emit light only when the touch display is in the special state; an application processor, AP , configured to control pixels contained in the ordinary pixel set and the standby pixel set in the preset area to emit light, the light emitted by the pixels being configured to illuminate a fingerprint of a user; and an optical fingerprint sensor , disposed under the preset area and configured to perform fingerprint collection on the fingerprint of the user illuminated by the light emitted by the pixels.
An implant having a main body comprising: i) a sac formed of deformable material and comprising an outer layer; and ii) a filler inside the sac; wherein the filler comprises a material with a coefficient of friction that allows opposite sides of the sac to move relative to one another when a force is applied to the joint, and wherein the outer surface of the sac is configured not to move relative to a joint component surface it is in contact with during articulation, characterised in that the implant is a hinge joint for an articulating two-component hinge joint, wherein the implant is configured to have a substantially hemi-spherocylindrical configuration when in situ within a cavity of the hinge joint. i) a sac formed of deformable material and comprising an outer layer; and ii) a filler inside the sac;
An electronic device comprising: a housing including a front glass plate , a back glass plate , and a side member surrounding a space between the front and back glass plates and including a conductive portion , wherein the conductive portion is configured to operate as an antenna, the front glass plate having: a rectangular shape including a first side , a second side , a third side and a fourth side when viewed from above the front glass plate, wherein the first and second sides have lengths shorter than lengths of the third and fourth sides, and wherein the first side of the front glass plate includes a first edge portion which is curved toward the back glass plate when viewed in cross-section cut in a direction perpendicular to the first side; a touch screen display exposed through a portion of the front glass plate; at least one first conductive pattern positioned inside the housing and formed along an inner surface of the first edge portion; a wireless communication circuit positioned inside the housing and electrically connected to the conductive portion and the at least one first conductive pattern; and a processor electrically connected to the touch screen display and the wireless communication circuit, wherein the touch screen display extends to the first side and optionally to the second side . a housing including a front glass plate , a back glass plate , and a side member surrounding a space between the front and back glass plates and including a conductive portion , wherein the conductive portion is configured to operate as an antenna, the front glass plate having: a rectangular shape including a first side , a second side , a third side and a fourth side when viewed from above the front glass plate, wherein the first and second sides have lengths shorter than lengths of the third and fourth sides, and wherein the first side of the front glass plate includes a first edge portion which is curved toward the back glass plate when viewed in cross-section cut in a direction perpendicular to the first side; a rectangular shape including a first side , a second side , a third side and a fourth side when viewed from above the front glass plate, wherein the first and second sides have lengths shorter than lengths of the third and fourth sides, and wherein the first side of the front glass plate includes a first edge portion which is curved toward the back glass plate when viewed in cross-section cut in a direction perpendicular to the first side; a touch screen display exposed through a portion of the front glass plate; at least one first conductive pattern positioned inside the housing and formed along an inner surface of the first edge portion; a wireless communication circuit positioned inside the housing and electrically connected to the conductive portion and the at least one first conductive pattern; and a processor electrically connected to the touch screen display and the wireless communication circuit, wherein the touch screen display extends to the first side and optionally to the second side .