mhurhangee/patent-ind-claim-en huggingface dataset:
A conjugate comprising a nanoparticle, and a lysosomal enzyme inhibitor or kinase inhibitor represented by general formula (A) below and a phospholipid mimetic substance represented by general formula (B) below that are carried on the surface of the nanoparticle: wherein in general formula (A), n1 is an integer from 2 to 30, n2 is an integer from 2 to 30, the -S- terminal is a nanoparticle-anchor moiety, and R 10 is a suicide substrate moiety or kinase inhibition moiety, wherein in general formula (B), n3 is an integer in the range from 2 to 30 and the -S-terminal is the nanoparticle-anchor moiety, wherein, in general formulas (A) and (B), the sum of n1 and n2 is equal to or greater than n3, and wherein the suicide substrate moiety contains a group that is reactive with an active center of a lysosomal enzyme, and a sugar residue, wherein the suicide substrate moiety R 10 contains the following functional group (E'): wherein in the formula, R is the sugar residue and LK is a linker, and wherein the kinase inhibition moiety contains a group having reactivity with a kinase, and a linker LK, and wherein said linker is represented by the formula (L): wherein n4 is an integer from 1 to 10, and wherein the nanoparticle has a particle diameter in the range from 0.1 to 100 nm. wherein in general formula (A), n1 is an integer from 2 to 30, n2 is an integer from 2 to 30, the -S- terminal is a nanoparticle-anchor moiety, and R 10 is a suicide substrate moiety or kinase inhibition moiety, wherein in general formula (B), n3 is an integer in the range from 2 to 30 and the -S-terminal is the nanoparticle-anchor moiety, wherein, in general formulas (A) and (B), the sum of n1 and n2 is equal to or greater than n3, and wherein the suicide substrate moiety contains a group that is reactive with an active center of a lysosomal enzyme, and a sugar residue, wherein the suicide substrate moiety R 10 contains the following functional group (E'): wherein in the formula, R is the sugar residue and LK is a linker, and wherein the kinase inhibition moiety contains a group having reactivity with a kinase, and a linker LK, and wherein said linker is represented by the formula (L): wherein n4 is an integer from 1 to 10, wherein said linker is represented by the formula (L): wherein n4 is an integer from 1 to 10, and wherein the nanoparticle has a particle diameter in the range from 0.1 to 100 nm.
An assembly for manufacturing containers by thermoforming, which comprises: - a magazine of thermoplastic sheet-like blanks (G), - a station for feeding the blanks (G), - a station for heating the blanks (G) that comprises a heating carousel on which a plurality of heating heads that are radially spaced apart from a central axis (H) is provided, - a station for thermoforming containers starting from said blanks (G), characterized in that said heating carousel is configured to rotate continuously about the central axis (H), and in that the feeding station comprises a closed-loop path laying on a plane that is perpendicular to said central axis (H) and at least two conveyor elements which move, following each other, along said path between a loading position, in which the conveyor element faces the blank magazine (G), and an unloading position, in which the conveyor element faces the heating station , wherein, in operating condition, the conveyor element in the unloading position moves with a substantially linear motion with a speed that is substantially equal to a peripheral speed of the heating carousel . - a magazine of thermoplastic sheet-like blanks (G), - a station for feeding the blanks (G), - a station for heating the blanks (G) that comprises a heating carousel on which a plurality of heating heads that are radially spaced apart from a central axis (H) is provided, - a station for thermoforming containers starting from said blanks (G),
A color filter (100, 100', 100") comprising: a substrate having a plurality of pixel areas (PA1, PA2, PA3) and a light blocking area (BA) surrounding the plurality of pixel areas (PA1, PA2, PA3); a light blocking layer on the light blocking area (BA); a first color conversion layer on a first pixel area (PA1) among the plurality of pixel areas (PA1, PA2, PA3) and configured to convert incident light (Lib, Luv) into light (Lr) of a first color; a first color filter layer on the first pixel area (PA1) and between the substrate and the first color conversion layer and configured to selectively transmit the light (Lr) of the first color emitted from the first color conversion layer ; and a light reflection layer including a reflective material, wherein an opening (OP2) is formed in the light reflection layer to expose the first pixel area (PA1), characterized in that the light reflection layer is disposed between the first color conversion layer and the first color filter layer . a substrate having a plurality of pixel areas (PA1, PA2, PA3) and a light blocking area (BA) surrounding the plurality of pixel areas (PA1, PA2, PA3); a light blocking layer on the light blocking area (BA); a first color conversion layer on a first pixel area (PA1) among the plurality of pixel areas (PA1, PA2, PA3) and configured to convert incident light (Lib, Luv) into light (Lr) of a first color; a first color filter layer on the first pixel area (PA1) and between the substrate and the first color conversion layer and configured to selectively transmit the light (Lr) of the first color emitted from the first color conversion layer ; and a light reflection layer including a reflective material, wherein an opening (OP2) is formed in the light reflection layer to expose the first pixel area (PA1), characterized in that the light reflection layer is disposed between the first color conversion layer and the first color filter layer .
A processing method for avoiding degradated spheroidization and pouring temperature drop of liquid spheroidal graphite cast iron during pouring process, comprising: filling liquid spheroidal graphite cast iron (5, a5, b5) to be poured into a pouring electric furnace device; paving molten alkali slag (6, a6, b6), which is abundant in alkali earth metal ion, rare earth metal ion, or a mixture of them, above the liquid spheroidal graphite cast iron (5, a5, b5), wherein the temperature of the alkali slag (6, a6, b6) is controlled to be 1500°C∼ 1700°C; connecting the liquid spheroidal graphite cast iron (5, a5, b5) as a cathode to a negative pole of a DC power supply (8, a8, b8), providing a graphite electrode (4, a4, b4) in the alkali slag (6, a6, b6) with a lower end thereof always inserted into the slag for a submerged arc operation; connecting the graphite electrode as an anode to a positive pole of the DC power supply (8, a8, b8), and using the alkali slag (6, a6, b6) as the liquid electrolyte; and conducting direct current in the pouring electric furnace device through the DC power supply (8, a8, b8), wherein the strength of the direct current is determined as follows according to the capacity of the pouring electric furnace device: a current equivalent of 20∼50 Faraday for each ton of liquid spheroidal graphite cast iron (5, a5, b5) per hour. filling liquid spheroidal graphite cast iron (5, a5, b5) to be poured into a pouring electric furnace device; paving molten alkali slag (6, a6, b6), which is abundant in alkali earth metal ion, rare earth metal ion, or a mixture of them, above the liquid spheroidal graphite cast iron (5, a5, b5), wherein the temperature of the alkali slag (6, a6, b6) is controlled to be 1500°C∼ 1700°C; connecting the liquid spheroidal graphite cast iron (5, a5, b5) as a cathode to a negative pole of a DC power supply (8, a8, b8), providing a graphite electrode (4, a4, b4) in the alkali slag (6, a6, b6) with a lower end thereof always inserted into the slag for a submerged arc operation; connecting the graphite electrode as an anode to a positive pole of the DC power supply (8, a8, b8), and using the alkali slag (6, a6, b6) as the liquid electrolyte; and conducting direct current in the pouring electric furnace device through the DC power supply (8, a8, b8), wherein the strength of the direct current is determined as follows according to the capacity of the pouring electric furnace device: a current equivalent of 20∼50 Faraday for each ton of liquid spheroidal graphite cast iron (5, a5, b5) per hour.
Device, in particular for an apparatus for grinding biological samples, comprising a first enclosure including an inner chamber intended to receive a material capable of producing cold by sublimation under normal temperature and pressure conditions and comprising an opening that allows fluid communication with an inner chamber of a second enclosure through an opening of said second enclosure , the device further comprising an air circuit bringing the outside air into communication with the inner chamber of the first enclosure , blowing means allowing air to circulate in the air circuit from the outside into the inner chamber of the first enclosure as well as means for measuring the temperature in the chamber of the second enclosure and means for controlling the blowing means of air according to the temperature in the chamber of the second enclosure , and wherein a cup for receiving said material is mounted fixed or movable inside the inner chamber of the first enclosure and comprises a lower wall including a plurality of orifices , the cup being positioned at a distance from a bottom wall of the first enclosure wherein the opening of the first enclosure is formed.
Musical instrument, particularly a wind instrument, having a hollow resonator, wherein the resonator is provided with a casing bounding a continuous column of air and an opening in the casing for producing a sound through the opening, wherein when used the column of air is set into vibration, wherein the casing at least partially takes over the vibration of the column of air, wherein the resonator comprises a first part and a second part in series, wherein the musical instrument is provided with a coupling between the first part and the second part, wherein at the side of the casing facing the outside the coupling is bounded by a transition edge between the first part and the second part, characterised in that: the musical instrument is provided with a sound bridge and one or more tensioning elements for arranging the sound bridge under clamping force in abutting contact onto the exterior of the resonator, wherein at a first outer end the sound bridge is provided with a first contact member which is arranged under clamping force in abutting contact onto the first part of the resonator, wherein at a second outer end the sound bridge is provided with a second contact member which is arranged under clamping force in abutting contact onto the second part of the resonator, and wherein the sound bridge is spaced apart from the transition edge.
A wireless terminal device for use in a store-and-forward type wireless network , the wireless terminal comprising: a wireless communication unit ; a memory coupled to the wireless communication unit and configured to store messages transferred via the wireless network ; and control means for adjusting at least one of a maximum number and maximum retention time of messages stored in the memory , based on first information representing a degree of contribution of the wireless terminal device to success in sending messages from a source node to a destination node via the wireless network , characterized in that the degree of contribution is evaluated based on a frequency of connection of the wireless terminal device to a wireless network infrastructure . a wireless communication unit ; a memory coupled to the wireless communication unit and configured to store messages transferred via the wireless network ; and control means for adjusting at least one of a maximum number and maximum retention time of messages stored in the memory , based on first information representing a degree of contribution of the wireless terminal device to success in sending messages from a source node to a destination node via the wireless network , characterized in that the degree of contribution is evaluated based on a frequency of connection of the wireless terminal device to a wireless network infrastructure .
Energy storage device comprising a set of accumulators and a thermally conductive element , the temperature of the thermally conductive element being able to vary as a function of a temperature of the set of accumulators, the thermally conductive element comprising a thermochromatic indicator , the energy storage device further comprising an optical sensor configured to observe the thermochromatic indicator, the energy storage device comprising an outer envelope enveloping the set of accumulators, the outer envelope being covered at least partially with a ceramic-based thermally insulating paint coating, the outer envelope comprising a zone (Z1) devoid of the paint coating, said zone comprising the thermally conductive element .
A display method, wherein the method is applicable to a display covered by a transparent panel, wherein the transparent panel has a non-deformation area and a deformation area , wherein the non-deformation area of the transparent panel is disposed at a location corresponding to the display , the non-deformation area is parallel to a surface of the display , wherein the deformation area is at a location that is on an edge of the transparent panel and that is corresponding to a first area on an outer side of an edge of the display wherein the deformation area has a cylindrical curved surface, wherein an included angle between an outer surface of the deformation area and a horizontal plane gradually decreases in a first direction of approaching the non-deformation area, and the method is characterized by : obtaining an optical deformation parameter of the first area of the display wherein the optical deformation parameter gradually decreases in the first direction since the included angle decreases; converting , according to the optical deformation parameter of the first area, a shape of first image data to obtain second image data, wherein the first image data is image data to be displayed in the first area; and displaying the second image data in the first area; detecting a relative angle between a human face of a user of the display and the display; wherein the optical deformation parameter of the first area of the display is obtained according to the relative angle; and compressing a length of first image data in a change direction of the optical deformation parameter according to the optical deformation parameter of the first area, so as to obtain the second image data. obtaining an optical deformation parameter of the first area of the display wherein the optical deformation parameter gradually decreases in the first direction since the included angle decreases; converting , according to the optical deformation parameter of the first area, a shape of first image data to obtain second image data, wherein the first image data is image data to be displayed in the first area; and displaying the second image data in the first area; detecting a relative angle between a human face of a user of the display and the display; wherein the optical deformation parameter of the first area of the display is obtained according to the relative angle; and compressing a length of first image data in a change direction of the optical deformation parameter according to the optical deformation parameter of the first area, so as to obtain the second image data.
A sensor probe operative to sense an electrical parameter of an insulated conductor, the sensor probe comprising: a body having a sleeve that is moveable along the body between an open position and a closed position; a clamp having a first jaw and an opposing second jaw that, when closed against each other, contain an interior region within the clamp ; and a non-contact sensor coupled to the sleeve and positioned at or near a perimeter of the interior region within the clamp , wherein the non-contact sensor is operative to sense at least one electrical parameter of the insulated conductor without requiring galvanic contact with the conductor when the insulated conductor is positioned within the interior region of the clamp , wherein, when the sleeve is in the open position, the first and second jaws are positioned apart from each other to create a gap that allows the insulated conductor to pass between the jaws into the interior region within the clamp , and when the sleeve is in the closed position, the first and second jaws are positioned to close the gap and thereby close the interior region within the clamp , and wherein the size of the interior region within the clamp is adjustable by movement of the sleeve along the body , characterized in that at least one of the first jaw and the second jaw of the clamp is positioned at least partially within the sleeve when the sleeve is in the closed position. a body having a sleeve that is moveable along the body between an open position and a closed position; a clamp having a first jaw and an opposing second jaw that, when closed against each other, contain an interior region within the clamp ; and a non-contact sensor coupled to the sleeve and positioned at or near a perimeter of the interior region within the clamp , wherein the non-contact sensor is operative to sense at least one electrical parameter of the insulated conductor without requiring galvanic contact with the conductor when the insulated conductor is positioned within the interior region of the clamp , wherein, when the sleeve is in the open position, the first and second jaws are positioned apart from each other to create a gap that allows the insulated conductor to pass between the jaws into the interior region within the clamp , and when the sleeve is in the closed position, the first and second jaws are positioned to close the gap and thereby close the interior region within the clamp , and wherein the size of the interior region within the clamp is adjustable by movement of the sleeve along the body , characterized in that at least one of the first jaw and the second jaw of the clamp is positioned at least partially within the sleeve when the sleeve is in the closed position.
A dental composition comprising: ion sustained-release glass (a); and a carrier (b) for supporting the ion sustained-release glass (a), wherein the ion sustained-release glass (a) is fluoroaluminoborosilicate glass having a composition range of: 15% to 35% by mass SiO 2 ; 15% to 30% by mass Al 2 O 3 ; 5% to 20% by mass B 2 O 3 ; 20% to 45% by mass SrO; 5% to 15% by mass F; and 0% to 10% by mass Na 2 O and wherein the ion sustained-release glass (a) sustained-releases a fluoride ion, and further sustained-releases at least one type of ion from among a strontium ion, an aluminum ion, and a borate ion, characterized in that the ion sustained-release glass (a) is surface-coated with a silane compound (c) and then surface-treated with an acid polymer (d). ion sustained-release glass (a); and a carrier (b) for supporting the ion sustained-release glass (a), wherein the ion sustained-release glass (a) is fluoroaluminoborosilicate glass having a composition range of: 15% to 35% by mass SiO 2 ; 15% to 30% by mass Al 2 O 3 ; 5% to 20% by mass B 2 O 3 ; 20% to 45% by mass SrO; 5% to 15% by mass F; and 0% to 10% by mass Na 2 O and 15% to 35% by mass SiO 2 ; 15% to 30% by mass Al 2 O 3 ; 5% to 20% by mass B 2 O 3 ; 20% to 45% by mass SrO; 5% to 15% by mass F; and 0% to 10% by mass Na 2 O and
A system comprising a three-dimensional gesture detection controller comprising a plurality of input channels (Rx) and an output channel (Tx) and a plurality of general purpose I/O ports (GPIO), wherein the 3D gesture controller generates an alternating electric near field through at least one transmission electrode coupled with the output channel (Tx), wherein some of the input channels (Rx) are coupled with 3D receiving electrodes , characterized by a plurality of touch electrodes (220; 410, 420; 610-650), wherein a receiving multiplexer couples one of the input channels (Rx) with the plurality of touch electrodes (220; 410, 420; 610-650) wherein the receiving multiplexer is controlled by time multiplexing with a time division multiple access scheme such that in a given time period more signals from the 3D receiving electrodes are scanned than signals from the touch electrodes (220; 410, 420; 610-650), wherein at least one touch electrode (220; 410, 420; 610-650) comprises a sensor layout with a first part that is absorption mode dominant, wherein an object approaching the first part reduces a capacitive coupling, and a second part that is transmission mode dominant, wherein an object approaching the second part increases the capacitive coupling. a plurality of touch electrodes (220; 410, 420; 610-650), wherein a receiving multiplexer couples one of the input channels (Rx) with the plurality of touch electrodes (220; 410, 420; 610-650) wherein the receiving multiplexer is controlled by time multiplexing with a time division multiple access scheme such that in a given time period more signals from the 3D receiving electrodes are scanned than signals from the touch electrodes (220; 410, 420; 610-650), wherein at least one touch electrode (220; 410, 420; 610-650) comprises a sensor layout with a first part that is absorption mode dominant, wherein an object approaching the first part reduces a capacitive coupling, and a second part that is transmission mode dominant, wherein an object approaching the second part increases the capacitive coupling.
Use of a compound of formula I R1-CH 2 -S-S-CH 2 -R2 (I) wherein R1 is selected from the group consisting of Ar1 and -(CH 2 ) x -COOH, wherein x is selected from 0, 1, 2, or 3, and wherein R2 is selected from the group consisting of Ar2 and - (CH2) y -COOH, wherein y is selected from 0, 1, 2, or 3 and Ar1 and Ar2 substituted or unsubstituted phenyl; as catalyst for the production of polyesterols. wherein R1 is selected from the group consisting of Ar1 and -(CH 2 ) x -COOH, wherein x is selected from 0, 1, 2, or 3, and wherein R2 is selected from the group consisting of Ar2 and - (CH2) y -COOH, wherein y is selected from 0, 1, 2, or 3 and Ar1 and Ar2 substituted or unsubstituted phenyl; as catalyst for the production of polyesterols.
Mounting for use in a digitally controlled material-removing process, containing at least one fixed real prefabricated prosthetic tooth , characterised in that the mounting has a plane (1.1) in which at least one flat three-dimensional moulded body is arranged, or the mounting has a plane (1.1) in which at least two clamping elements are arranged, at least one real prefabricated prosthetic tooth being fixed in the moulded body or between the clamping elements , the tooth axis (3.1) of the at least one prefabricated prosthetic tooth being arranged at an angle of 20° to 160° to the plane (1.1) of the mounting , so that the at least one real prefabricated prosthetic tooth may be processed from coronal (3.2) and/or from apical (3.3) in a material-removing process, and digital or scannable correction factors being assigned to the mounting for the spatial, real arrangement of the at least one prefabricated prosthetic tooth in relation to a reference arrangement (A) comprising at least one corresponding real prefabricated reference prosthetic tooth (A3) in a real reference mounting (A1) of the mounting or at least one virtual prefabricated reference prosthetic tooth (vA3), optionally in a virtual reference mounting (vA1) of the mounting , the digital or scannable correction factors forming translation (x,y,z) data and optionally the data of rotation of the respective outer shape of the respective real prefabricated prosthetic tooth in the ACTUAL arrangement to the TARGET arrangement, i.e. the reference arrangement (A).