mhurhangee/patent-ind-claim-en huggingface dataset:
A remote controller comprising: a speaker configured to send an ultrasonic signal (Ω) that controls an operation of at least one in-vehicle device (51 to 54) and an information receiver configured to detect information related to noise sound inside a vehicle ; characterized in that the remote controller further comprises a controller configured to calculate a propagability index of the ultrasonic signal (Ω) from the information related to noise sound; and a display configured to display the propagability index as communication quality level of the ultrasonic signal (Ω), wherein: the information receiver is configured to measure degree of change in operating mode of the at least one in-vehicle device (51 to 54) that changes the operating mode based on the ultrasonic signal (Ω); and the controller is configured to recalculate the propagability index based on the degree of change and update display of the communication quality level. a speaker configured to send an ultrasonic signal (Ω) that controls an operation of at least one in-vehicle device (51 to 54) and an information receiver configured to detect information related to noise sound inside a vehicle ; characterized in that the remote controller further comprises a controller configured to calculate a propagability index of the ultrasonic signal (Ω) from the information related to noise sound; and a display configured to display the propagability index as communication quality level of the ultrasonic signal (Ω), wherein: the information receiver is configured to measure degree of change in operating mode of the at least one in-vehicle device (51 to 54) that changes the operating mode based on the ultrasonic signal (Ω); and the controller is configured to recalculate the propagability index based on the degree of change and update display of the communication quality level.
A substrate for a photolithographic mask comprising a coating deposited on a rear surface of the substrate, the coating comprising: a. at least one electrically conducting layer, wherein the at least one layer comprises at least one first layer comprising at least one metal and at least one second layer comprising at least one metal nitride, and wherein the at least one metal of the at least one first layer comprises nickel (Ni), chromium (Cr) or titanium (Ti); b. wherein a thickness of the at least one layer is smaller than 30 nm, preferably smaller than 20 nm, and most preferably smaller than 10 nm; c. wherein the at least one layer comprises an optical transmittance of more than 20 % in the wavelength range of 300 nm to 1100 nm; and d. wherein the least one metal nitride layer protects the underlying metal coating. a. at least one electrically conducting layer, wherein the at least one layer comprises at least one first layer comprising at least one metal and at least one second layer comprising at least one metal nitride, and wherein the at least one metal of the at least one first layer comprises nickel (Ni), chromium (Cr) or titanium (Ti); b. wherein a thickness of the at least one layer is smaller than 30 nm, preferably smaller than 20 nm, and most preferably smaller than 10 nm; c. wherein the at least one layer comprises an optical transmittance of more than 20 % in the wavelength range of 300 nm to 1100 nm; and d. wherein the least one metal nitride layer protects the underlying metal coating.
A device for opening a connection to a lined pipe, comprising: a body having a front end and a rear end opposite to the front end and being rotatable about a rotation axis (RA), a drill head at the front end of the body, the drill head comprising multiple cutters for puncturing and enlarging a hole in a liner , multiple side cutters on the body disposed between the front end and the rear end , each side cutter having at least one cutting edge parallel to the rotation axis, characterized in that the device further comprises a safety ring disposed on the body between said drill head and said side cutters , the safety ring having a circular peripheral surface extending beyond said drill head and said side cutters in a direction perpendicular to the rotation axis (RA), wherein the safety ring extends at least 5 % further away from the rotation axis than any cutting edge in a direction perpendicular to the rotation axis. a body having a front end and a rear end opposite to the front end and being rotatable about a rotation axis (RA), a drill head at the front end of the body, the drill head comprising multiple cutters for puncturing and enlarging a hole in a liner , multiple side cutters on the body disposed between the front end and the rear end , each side cutter having at least one cutting edge parallel to the rotation axis, characterized in that the device further comprises a safety ring disposed on the body between said drill head and said side cutters , the safety ring having a circular peripheral surface extending beyond said drill head and said side cutters in a direction perpendicular to the rotation axis (RA), wherein the safety ring extends at least 5 % further away from the rotation axis than any cutting edge in a direction perpendicular to the rotation axis.
A display device comprising: a substrate (SB) including a display area, the display area including a front area (A1) and a corner area (A3) disposed at a corner of the display area; characterised by a main dam (MD) disposed between the front area (A1) and the corner area (A3); and a plurality of corner dams (CD) disposed in the corner area (A3), wherein the corner area (A3) includes a plurality of stripe areas (SA) defined by the plurality of corner dams (CD) and the plurality of corner dams (CD) extend from the main dam (MD) and are disposed along an edge of the plurality of stripe areas (SA). a substrate (SB) including a display area, the display area including a front area (A1) and a corner area (A3) disposed at a corner of the display area; characterised by a main dam (MD) disposed between the front area (A1) and the corner area (A3); and a plurality of corner dams (CD) disposed in the corner area (A3), wherein the corner area (A3) includes a plurality of stripe areas (SA) defined by the plurality of corner dams (CD) and the plurality of corner dams (CD) extend from the main dam (MD) and are disposed along an edge of the plurality of stripe areas (SA).
Reactor for catalytic chemical reactions, comprising: a catalyst bed with an annular-cylindrical form and a radial or mixed axial-radial crossing flow; at least a first cylindrical wall and a second cylindrical wall which delimit the catalyst bed being in direct contact with the catalyst, the second wall being coaxial and internal relative to the first wall; wherein said first wall and said second wall comprise passages to make them gas-permeable; wherein said passages are slits having an elongated form in a longitudinal direction (A-A) of the slit and a respective transverse dimension ( s ) in a transverse direction which is perpendicular to said longitudinal direction; wherein the catalyst bed is formed by particles of catalyst which have a nominal minimum size (di) such that: a) the ratio between said transverse dimension of the slits and said nominal minimum size of the particles of catalyst is less than or equal to 0.6; b) the catalyst bed contains no more than 3% by weight of particles with a size smaller than said nominal minimum size. a catalyst bed with an annular-cylindrical form and a radial or mixed axial-radial crossing flow; at least a first cylindrical wall and a second cylindrical wall which delimit the catalyst bed being in direct contact with the catalyst, the second wall being coaxial and internal relative to the first wall; wherein said first wall and said second wall comprise passages to make them gas-permeable; wherein said passages are slits having an elongated form in a longitudinal direction (A-A) of the slit and a respective transverse dimension ( s ) in a transverse direction which is perpendicular to said longitudinal direction; wherein the catalyst bed is formed by particles of catalyst which have a nominal minimum size (di) such that: a) the ratio between said transverse dimension of the slits and said nominal minimum size of the particles of catalyst is less than or equal to 0.6; b) the catalyst bed contains no more than 3% by weight of particles with a size smaller than said nominal minimum size. a) the ratio between said transverse dimension of the slits and said nominal minimum size of the particles of catalyst is less than or equal to 0.6; b) the catalyst bed contains no more than 3% by weight of particles with a size smaller than said nominal minimum size.
Device for printing containers , comprising at least one print head and a container transport device , by means of which a container , located at a container loading position (LP), is moved from the container loading position (LP) into a printing position (DP), wherein the printing head is configured for the printing of the container at the printing position (DP), and characterised in that the container transport device comprises an axially movable lifting element (4.2) and a transport arm (4.1) arranged at this lifting element (4.2), which can be pivoted about a pivot axis and by means of which the lifting element (4.2) can be moved axially in relation to this pivot axis, such that the container can be moved with a lifting-pivoting movement from the container loading position (LP) into the printing position (DP), wherein the transport arm (4.1) comprises a holding and centring unit for holding and centring the container .
A method of preparing a mushroom-based meat substitute comprising about 30% w/w to about 95% w/w mushroom material, about 2% w/w to about 60% w/w emulsion and about 0.5% w/w to about 10% w/w binding agent, wherein the method comprises the steps of: preparing a raw mushroom-based meat substitute comprising the mushroom material, the binding agent and the emulsion; exposing the raw mushroom-based meat substitute to a forming process to produce a formed mushroom-based meat substitute; exposing the formed mushroom-based meat substitute to a retorting process comprising the step of heating the raw mushroom-based meat substitute to a temperature of 121°C to 141°C for at least about 5 minutes in a hermetically sealed package; wherein the mushroom material substantially comprises mushroom stem; and wherein the retorting process induces a Maillard reaction. preparing a raw mushroom-based meat substitute comprising the mushroom material, the binding agent and the emulsion; exposing the raw mushroom-based meat substitute to a forming process to produce a formed mushroom-based meat substitute; exposing the formed mushroom-based meat substitute to a retorting process comprising the step of heating the raw mushroom-based meat substitute to a temperature of 121°C to 141°C for at least about 5 minutes in a hermetically sealed package; wherein the mushroom material substantially comprises mushroom stem; and wherein the retorting process induces a Maillard reaction.
A method for wireless communications at a user equipment, UE , comprising: canceling transmission of a transport block comprising a plurality of code blocks, wherein a first subset of code blocks of the plurality of code blocks is encoded for transmission and a second subset of code blocks of the plurality of code blocks is unencoded for transmission based at least in part on the canceling; receiving a re-transmission request for a code block of the second subset of code blocks, wherein the code block comprises a set of parity check bits for the transport block; determining that a current state of the set of parity check bits for the transport block corresponds to the first subset of code blocks and not to the second subset of code blocks based at least in part on the canceling; modifying the code block comprising the set of parity check bits for the transport block based at least in part on the determining, wherein the modifying comprises: setting each bit of the set of parity check bits for the transport block to a common bit value based at least in part on the determining, or removing the set of parity check bits for the transport block from the code block based at least in part on the determining; and transmitting the modified code block based at least in part on the retransmission request. canceling transmission of a transport block comprising a plurality of code blocks, wherein a first subset of code blocks of the plurality of code blocks is encoded for transmission and a second subset of code blocks of the plurality of code blocks is unencoded for transmission based at least in part on the canceling; receiving a re-transmission request for a code block of the second subset of code blocks, wherein the code block comprises a set of parity check bits for the transport block; determining that a current state of the set of parity check bits for the transport block corresponds to the first subset of code blocks and not to the second subset of code blocks based at least in part on the canceling; modifying the code block comprising the set of parity check bits for the transport block based at least in part on the determining, wherein the modifying comprises: setting each bit of the set of parity check bits for the transport block to a common bit value based at least in part on the determining, or removing the set of parity check bits for the transport block from the code block based at least in part on the determining; and transmitting the modified code block based at least in part on the retransmission request.
An abrasive coating for a substrate comprising: a metallic based bond coat layer ; a top layer ; the abrasive coating being characterised in that : the metallic based bond coat layer is 3-12 mils (76-305 microns) thick and has a porosity of less than 20 volume percent; the top layer is 5.5-22 mils (140-559 microns) thick and has a porosity of between 1-20 volume percent, and forms a 0.2-0.6 fraction of the total thickness of the abrasive coating ; and in that said abrasive coating further comprises an intermediate layer between the metallic based bond coat layer and the top layer , wherein the intermediate layer is 1-3 mils (25-76 microns) thick. a metallic based bond coat layer ; a top layer ; the abrasive coating being characterised in that : the metallic based bond coat layer is 3-12 mils (76-305 microns) thick and has a porosity of less than 20 volume percent; the top layer is 5.5-22 mils (140-559 microns) thick and has a porosity of between 1-20 volume percent, and forms a 0.2-0.6 fraction of the total thickness of the abrasive coating ; and in that said abrasive coating further comprises an intermediate layer between the metallic based bond coat layer and the top layer , wherein the intermediate layer is 1-3 mils (25-76 microns) thick. the metallic based bond coat layer is 3-12 mils (76-305 microns) thick and has a porosity of less than 20 volume percent; the top layer is 5.5-22 mils (140-559 microns) thick and has a porosity of between 1-20 volume percent, and forms a 0.2-0.6 fraction of the total thickness of the abrasive coating ; and in that said abrasive coating further comprises an intermediate layer between the metallic based bond coat layer and the top layer , wherein the intermediate layer is 1-3 mils (25-76 microns) thick.
A mooring tensioning arrangement for a floating structure or vessel comprising an anchor , a mooring line , a fairlead chain stopper arrangement , in use, attachable to the floating structure or vessel , the mooring tensioning arrangement further comprising a pulling unit for tensioning the mooring line , wherein said mooring line is attached to the anchor at a first end and attachable to the pulling unit at the second end, to form said mooring tensioning arrangement, wherein said mooring line is further extending from the anchor through the fairlead chain stopper arrangement , wherein the mooring tensioning arrangement further comprising a temporary or permanent midwater pulley device (4, 4',4") arrangeable to form said mooring tensioning arrangement on a part of the mooring line arranged between the anchor and the fairlead chain stopper arrangement , said fairlead chain stopper arrangement comprising a chain stopper interacting with said mooring line and a chain pulley guiding the mooring line through the fairlead chain stopper arrangement and back towards the midwater pulley device (4, 4', 4") to form said mooring tensioning arrangement and in said mooring tensioning arrangement said mooring line is further guided from said midwater pulley (4, 4', 4") towards said pulling unit (9, 10, ', 42, 51, 52), wherein said midwater pulley device (4, 4', 4") further comprising a midwater pulley adapted to receive a part of the mooring line extending between the chain stopper arrangement and the pulling unit , said pulling unit being remotely arranged from the floating structure or vessel when tensioning the mooring line .
Plier with a movable plier leg forming a movable jaw and a fixed leg forming a fixed jaw , the fixed leg being connected to the movable plier leg via a connecting bolt so as to be pivotable to a limited extent, and the connecting bolt passing through an opening in the fixed leg , wherein the connecting bolt is displaceable along the opening for setting a jaw width between the movable jaw and the fixed jaw , wherein the connecting bolt is displaceable in its longitudinal axis relative to the movable plier leg and to the fixed jaw between an end position blocking a sliding movement of the fixed jaw towards the movable jaw and an end position releasing the sliding movement, wherein the connecting bolt is designed to be lockable in the end position releasing the sliding movement, characterized in that the connecting bolt has a locking device by means of which the connecting bolt can be fixed to the fixed leg in its axial movability relative to the latter, and the locking device can be adjusted in the end position releasing the sliding movement by a pivoting movement of the movable plier leg relative to the fixed leg between a toothing arranged in the opening and a toothing arranged on the connecting bolt .
An assembly for positioning a tibia cut guide on a tibia , the assembly comprising: a sensor bracket with a first inertial sensor , the sensor bracket being configured to be mounted to the tibia at a location thereon being representative of a mechanical axis of the tibia , the sensor bracket being configured to be mounted to the tibia cut guide ; and an ankle clamp configured to be mounted non-invasively about a skin (S) of an ankle (A) of a patient to be in fixed relation to the ankle (A) and having a second inertial sensor , the ankle clamp being spaced apart from the sensor bracket along a length of a leg of the patient and free of interconnection therewith; the first and second inertial sensors being configured to be displaced with the tibia to register the tibia in a reference coordinate system defined by the first and second inertial sensors , and to calibrate the first inertial sensor with the mechanical axis of the tibia ; characterized in that the ankle clamp and the second inertial sensor are configured to be removed from the skin (S) of the ankle (A) after registering the tibia in the reference coordinate system, wherein the first inertial sensor mounted to the sensor bracket is operable to track the mechanical axis of the tibia after the ankle clamp and the second inertial sensor have been removed. a sensor bracket with a first inertial sensor , the sensor bracket being configured to be mounted to the tibia at a location thereon being representative of a mechanical axis of the tibia , the sensor bracket being configured to be mounted to the tibia cut guide ; and an ankle clamp configured to be mounted non-invasively about a skin (S) of an ankle (A) of a patient to be in fixed relation to the ankle (A) and having a second inertial sensor , the ankle clamp being spaced apart from the sensor bracket along a length of a leg of the patient and free of interconnection therewith; the first and second inertial sensors being configured to be displaced with the tibia to register the tibia in a reference coordinate system defined by the first and second inertial sensors , and to calibrate the first inertial sensor with the mechanical axis of the tibia ; characterized in that the ankle clamp and the second inertial sensor are configured to be removed from the skin (S) of the ankle (A) after registering the tibia in the reference coordinate system, wherein the first inertial sensor mounted to the sensor bracket is operable to track the mechanical axis of the tibia after the ankle clamp and the second inertial sensor have been removed.
A computer-implemented method for monitoring an oil refinery plant comprising: from a first dataset of historical production information of the oil refinery plant , wherein the first dataset of historical production information comprises a plurality of samples of a penetration value of a residue of a vacuum distillation unit obtained from laboratory analysis, and a plurality of samples of variables comprising production scheduling information , laboratory analysis information and production control operational information , wherein the laboratory analysis information includes in addition to the penetration value of the residue of the vacuum distillation unit , at least one crude characterization parameter, and wherein the production control operational information includes at least one temperature parameter and at least one flow rate parameter of the vacuum distillation unit : constructing a predictive model by applying a computerized, numerical algorithm based on machine learning techniques; and calculating model evaluation metrics; obtaining a prediction value for the penetration value of the residue of the vacuum distillation unit by applying the constructed predictive model to a second dataset comprising a most recent data sample of information of the oil refinery plant , the second dataset comprising samples of the same variables used to form the first dataset , except for the variable representing the penetration of the residue of the vacuum unit ; depending on the obtained prediction value , actuating or not on at least one production control operational variable of the oil refinery plant . from a first dataset of historical production information of the oil refinery plant , wherein the first dataset of historical production information comprises a plurality of samples of a penetration value of a residue of a vacuum distillation unit obtained from laboratory analysis, and a plurality of samples of variables comprising production scheduling information , laboratory analysis information and production control operational information , wherein the laboratory analysis information includes in addition to the penetration value of the residue of the vacuum distillation unit , at least one crude characterization parameter, and wherein the production control operational information includes at least one temperature parameter and at least one flow rate parameter of the vacuum distillation unit : constructing a predictive model by applying a computerized, numerical algorithm based on machine learning techniques; and calculating model evaluation metrics; obtaining a prediction value for the penetration value of the residue of the vacuum distillation unit by applying the constructed predictive model to a second dataset comprising a most recent data sample of information of the oil refinery plant , the second dataset comprising samples of the same variables used to form the first dataset , except for the variable representing the penetration of the residue of the vacuum unit ; depending on the obtained prediction value , actuating or not on at least one production control operational variable of the oil refinery plant .