mhurhangee/patent-ind-claim-en huggingface dataset:
A polishing composition for polishing a silicon wafer, the composition comprising: a water-soluble polymer M C-end , and a silica grain as an abrasive, wherein the water-soluble polymer M C-end has a main chain formed with a non-cationic region as its main structural part and a cationic region located at least at one end of the main chain, the cationic region has at least one cationic group, and the composition has a pH in a range of 8 to 12. a water-soluble polymer M C-end , and a silica grain as an abrasive, wherein the water-soluble polymer M C-end has a main chain formed with a non-cationic region as its main structural part and a cationic region located at least at one end of the main chain, the cationic region has at least one cationic group, and the composition has a pH in a range of 8 to 12.
An ion milling apparatus comprising: a pair of shielding members (29a and 29b) sandwiching a sample ; and an ion source configured to irradiate the sample with an ion beam , a sample holder having the pair of shielding members (29a and 29b); a sample stage to and from which the sample holder is attachable and detachable; and a rotation mechanism configured to rotate the sample holder , wherein the ion milling apparatus is configured to be capable of irradiating the sample with the ion beam in a first mode of irradiating the sample with the ion beam via one shielding member of the pair of shielding members (29a and 29b) and in a second mode of irradiating the sample with the ion beam via the other shielding member , and the ion milling apparatus is further configured to be switchable between the first mode and the second mode by rotating the sample holder by the rotation mechanism . a pair of shielding members (29a and 29b) sandwiching a sample ; and an ion source configured to irradiate the sample with an ion beam , a sample holder having the pair of shielding members (29a and 29b); a sample stage to and from which the sample holder is attachable and detachable; and a rotation mechanism configured to rotate the sample holder , wherein the ion milling apparatus is configured to be capable of irradiating the sample with the ion beam in a first mode of irradiating the sample with the ion beam via one shielding member of the pair of shielding members (29a and 29b) and in a second mode of irradiating the sample with the ion beam via the other shielding member , and the ion milling apparatus is further configured to be switchable between the first mode and the second mode by rotating the sample holder by the rotation mechanism .
A polyolefin compound comprising: A) at least one thermoplastic olefin copolymer comprising the polymerization product of olefin 1 and olefin 2, wherein the term 'copolymer' means a polymer prepared from two different monomers, wherein: olefin 1 is a C 2 olefin and olefin 2 is a C 3 to C 8 α-olefin; or olefin 1 is a C 3 olefin and olefin 2 is a C 4 to C 8 α-olefin, the thermoplastic olefin copolymer in the polyolefin compound being between 30 and 90 weight percent of the combined components A and B; B) at least one functional polymer comprising units derived from ethylene vinyl acetate monomer, the functional polymer content in the polyolefin compound being between 1 and 75 weight percent of the combined components A and B; wherein the thermoplastic olefin copolymer and the functional polymer form a co-continuous phase; wherein: a) an I 2 melt index of the polyolefin compound is from 1 to 15 as measured using ASTM D1238; b) a Shore A hardness of the polyolefin compound is from 55 to 100 as measured using ASTM D2240; c) a flexural modulus of the polyolefin compound is from 5.5 x 10 6 to 206.8 x 10 6 Pa (0.8 to 30 kpsi) as measured using ASTM D790. A) at least one thermoplastic olefin copolymer comprising the polymerization product of olefin 1 and olefin 2, wherein the term 'copolymer' means a polymer prepared from two different monomers, wherein: olefin 1 is a C 2 olefin and olefin 2 is a C 3 to C 8 α-olefin; or olefin 1 is a C 3 olefin and olefin 2 is a C 4 to C 8 α-olefin, the thermoplastic olefin copolymer in the polyolefin compound being between 30 and 90 weight percent of the combined components A and B; olefin 1 is a C 2 olefin and olefin 2 is a C 3 to C 8 α-olefin; or olefin 1 is a C 3 olefin and olefin 2 is a C 4 to C 8 α-olefin, the thermoplastic olefin copolymer in the polyolefin compound being between 30 and 90 weight percent of the combined components A and B; B) at least one functional polymer comprising units derived from ethylene vinyl acetate monomer, the functional polymer content in the polyolefin compound being between 1 and 75 weight percent of the combined components A and B; a) an I 2 melt index of the polyolefin compound is from 1 to 15 as measured using ASTM D1238; b) a Shore A hardness of the polyolefin compound is from 55 to 100 as measured using ASTM D2240; c) a flexural modulus of the polyolefin compound is from 5.5 x 10 6 to 206.8 x 10 6 Pa (0.8 to 30 kpsi) as measured using ASTM D790.
Process for producing a pre-crosslinked pressure-sensitive adhesive by contacting and subsequently mixing the following components: a) at least one polyetheramine which contains at least two terminal -NH 2 groups and contains at least one alkyl radical in alpha position to at least one -NH 2 group; b) at least one epoxy resin; c) at least one hardener different from a); d) optionally at least one accelerator; and e) optionally at least one additive; where the epoxy conversion U epoxy = 0.85 α gel to 1.3 α gel and α gel is the gel point, calculated as defined in the description, of the composition, and the mixed Tg, measured as defined in the description, of components a) and b) is under 0°C. a) at least one polyetheramine which contains at least two terminal -NH 2 groups and contains at least one alkyl radical in alpha position to at least one -NH 2 group; b) at least one epoxy resin; c) at least one hardener different from a); d) optionally at least one accelerator; and e) optionally at least one additive; where
An interlayer film for laminated glass that has a two or more-layer structure, comprising: a first layer that contains a thermoplastic resin and silica particles which are porous, and a second layer containing a thermoplastic resin, wherein the second layer is disposed on a first surface side of the first layer, wherein a content of the silica particles in the first layer is 5 parts by weight or greater with respect to 100 parts by weight of the thermoplastic resin in the first layer, wherein the thermoplastic resin in the first layer is at least one of the group consisting of a polyvinyl acetal resin, an ethylene-vinyl acetate copolymer resin, an ethylene-acrylic acid copolymer resin, a polyurethane resin, and a polyvinyl alcohol resin, and the thermoplastic resin in the second layer is at least one of the group consisting of a polyvinyl acetal resin, an ethylene-vinyl acetate copolymer resin, an ethylene-acrylic acid copolymer resin, a polyurethane resin, and a polyvinyl alcohol resin, and wherein the glass transition temperature, as measured according to the method in the description, of the first layer is 20°C or lower, and the glass transition temperature, as measured according to the method in the description, of the first layer is lower than the glass transition temperature of the second layer. a first layer that contains a thermoplastic resin and silica particles which are porous, and a second layer containing a thermoplastic resin, wherein the second layer is disposed on a first surface side of the first layer, wherein the thermoplastic resin in the first layer is at least one of the group consisting of a polyvinyl acetal resin, an ethylene-vinyl acetate copolymer resin, an ethylene-acrylic acid copolymer resin, a polyurethane resin, and a polyvinyl alcohol resin, and the thermoplastic resin in the second layer is at least one of the group consisting of a polyvinyl acetal resin, an ethylene-vinyl acetate copolymer resin, an ethylene-acrylic acid copolymer resin, a polyurethane resin, and a polyvinyl alcohol resin, and wherein the glass transition temperature, as measured according to the method in the description, of the first layer is 20°C or lower, and the glass transition temperature, as measured according to the method in the description, of the first layer is lower than the glass transition temperature of the second layer.
Construction component for building walls, comprising a supporting block of concrete and a lattice comprising a number of intersecting lattice wires , the lattice being provided with side areas thereof, arranged to enclose a volume on one side of the supporting block , between a main area of the lattice and an adjacent surface of the supporting block , such that the volume is fillable with lumps of a loose, solid material, and at least one of the wires is arranged inside the concrete and aligned with the adjacent surface of the supporting block , positioned below the surface , characterised in that the side areas of the lattice are angled inwards, forming an acute angle with the main area .
A composition for improving heat insulation and soundproofing properties of a fabric, the composition containing aerogel, prepared by mixing solvent, aerogel powder, adhesive binder, and carbon black powder, wherein the composition includes 80 to 100 parts by weight of the solvent, 3 to 5 parts by weight of the aerogel powder, 1 to 2 parts by weight of the adhesive binder, and 1 to 5 parts by weight of the carbon black powder.
A wearable image display system comprising: a headpiece ; a first and a second light engine configured to generate a first and a second set of beams respectively (IB, 34), each beam substantially collimated so that the first and second set form a first and a second virtual image respectively, the light engines mounted on the headpiece; and a first and a second waveguide , each waveguide located to project an image onto a first and a second eye of a wearer respectively and comprising an incoupling structure and an exit structure ; wherein the first and second sets of beams are directed to the incoupling structures of the first and second waveguides respectively, the exit structures of the first and second waveguides being arranged to guide the first and second sets of beams onto the first and second eyes respectively, wherein the waveguides are located between the light engines and the eyes, wherein both of the light engines are mounted to a central portion of the headpiece; and wherein the first and second sets of beams are directed from displays of the first and second light engines, respectively, via first and second exit apertures (EA) of the first and second light engine, respectively, characterized in that the first and second waveguides are mounted to the headpiece at an acute angle relative to a vertical axis of the headpiece such that, in use , the bottom of the waveguides are nearer to the wearer than the top of the waveguides, the first and second waveguides angled away from the plane of the displays such that any light from the light engines and outwardly reflected by the input coupling structures of the waveguides propagates clear of the exit apertures (EA). a headpiece ; a first and a second light engine configured to generate a first and a second set of beams respectively (IB, 34), each beam substantially collimated so that the first and second set form a first and a second virtual image respectively, the light engines mounted on the headpiece; and a first and a second waveguide , each waveguide located to project an image onto a first and a second eye of a wearer respectively and comprising an incoupling structure and an exit structure ; wherein the first and second sets of beams are directed to the incoupling structures of the first and second waveguides respectively, the exit structures of the first and second waveguides being arranged to guide the first and second sets of beams onto the first and second eyes respectively, wherein the waveguides are located between the light engines and the eyes, wherein both of the light engines are mounted to a central portion of the headpiece; and wherein the first and second sets of beams are directed from displays of the first and second light engines, respectively, via first and second exit apertures (EA) of the first and second light engine, respectively,
Unconsolidated material anchor device , consisting of an elongate continuous open box construction as a continuous beam with a triangle-shaped cross-section comprising a first wall surface , second wall surface and third wall surface , wherein the first wall surface in its lower end area which is introduced into unconsolidated materials is extended beyond connecting areas with the two adjacent second and third wall surfaces whereby two cantilevered wall surfaces are formed, characterized in that in a lower area of the connecting area between the second and third wall surface an anchor pile for an anchor line is arranged. wherein the first wall surface in its lower end area which is introduced into unconsolidated materials is extended beyond connecting areas with the two adjacent second and third wall surfaces whereby two cantilevered wall surfaces are formed, characterized in that in a lower area of the connecting area between the second and third wall surface an anchor pile for an anchor line is arranged.
A powered lower extremity orthotic , configurable to be coupled to a person , comprising an exoskeleton including a waist portion configurable to be coupled to an upper body of the person , at least one leg support configurable to be coupled to at least one lower limb of the person and at least one actuator for shifting of the at least one leg support relative to the waist portion to enable movement of the lower limb of the person , characterized in that the powered lower extremity orthotic further includes: a plurality of sensors for monitoring a first orientation of said exoskeleton ; at least one additional sensor for monitoring a second orientation of a walking aid used by the person ; and a controller receiving signals from both the plurality of sensors and the at least one additional sensor and regulating operation of the at least one actuator , said controller establishing a present state of said powered lower extremity orthotic from a finite plurality of states based on both the first and second orientations and, based on the present state, controlling the at least one actuator to cause the powered lower extremity orthotic to follow a series of orientations collectively reproducing a natural human motion. a plurality of sensors for monitoring a first orientation of said exoskeleton ; at least one additional sensor for monitoring a second orientation of a walking aid used by the person ; and a controller receiving signals from both the plurality of sensors and the at least one additional sensor and regulating operation of the at least one actuator , said controller establishing a present state of said powered lower extremity orthotic from a finite plurality of states based on both the first and second orientations and, based on the present state, controlling the at least one actuator to cause the powered lower extremity orthotic to follow a series of orientations collectively reproducing a natural human motion.
Hob with a hob apparatus having a display area , a sensor unit , which is provided in at least one operating state to detect at least one operating gesture of an operator, and a control unit , which is provided in the operating state to carry out and/or initiate at least one action on the basis of the operating gesture detected by the sensor unit , characterised in that the control unit is provided in the operating state to move at least one marking over at least the display area as a function of at least one marking movement operating gesture, wherein the control unit is provided in the operating state to make a preselection as a function of a position of the marking , wherein the control unit is provided in the operating state to adopt at least the preselection, which is a choice of an object and/or the action from a group of objects and/or actions with the aim of selecting the chosen object and/or the chosen action, as a function of at least one confirmation operating gesture, wherein the control unit is provided in the operating state to make a note of the preselection for subsequent confirmation, wherein the confirmation operating gesture is provided for confirming the preselection and as a function of which the control unit carries out and/or initiates an action assigned to the preselection, wherein the control unit is provided in the operating state to adopt the preselection exclusively as a function of predefined confirmation operating gestures, wherein the control unit is provided in the operating state to adopt the preselection exclusively as a function of predefined confirmation operating gestures that are performed within a predefined confirmation time period .
A soldering method characterized in that the soldering method comprises: a first step of applying solder paste in which a solder alloy is mixed with residue-free flux to a soldering portion on a circuit board, and mounting an electronic part on the solder paste; a second step of volatilizing the residue-free flux contained in the solder paste by heating the circuit board in a furnace set to be a vacuum state and a first temperature in a range of 150 through 180 °C; a third step of removing an oxide film on at least the soldering portion by heating the circuit board in the furnace set to be a reducing atmospheric state and a second temperature; and a fourth step of melting solder contained in the solder paste by heating the circuit board in the furnace set to be a vacuum state and a third temperature which is higher than the second temperature. a first step of applying solder paste in which a solder alloy is mixed with residue-free flux to a soldering portion on a circuit board, and mounting an electronic part on the solder paste; a second step of volatilizing the residue-free flux contained in the solder paste by heating the circuit board in a furnace set to be a vacuum state and a first temperature in a range of 150 through 180 °C; a third step of removing an oxide film on at least the soldering portion by heating the circuit board in the furnace set to be a reducing atmospheric state and a second temperature; and a fourth step of melting solder contained in the solder paste by heating the circuit board in the furnace set to be a vacuum state and a third temperature which is higher than the second temperature.
A system for conveying electronic cigarette components, comprising: a guide comprising at least one stopping station (S); a carriage configured to slide along the guide and comprising retaining means for holding at least one component of an electronic cigarette; a locking unit for locking the carriage relative to the guide at the stopping station (S); characterized in that the locking unit comprises: two abutment elements mounted on the carriage and disposed at a predetermined mutual distance; and an inserting element which is: disposed at the stopping station (S); shaped in such a way that its first and second edges come into contact with the two abutment elements , respectively, when the carriage is at the stopping station (S); movable between a retracted position (R), where it does not contact the two abutment elements and allows the carriage to slide relative to the guide , and an advanced position (A) where it contacts the two abutment elements , thereby preventing the carriage from sliding relative to the guide ; and wherein each abutment element is rotatable about its axis (H) in such a way as to facilitate movement of the inserting element between the two positions (A, R). a guide comprising at least one stopping station (S); a carriage configured to slide along the guide and comprising retaining means for holding at least one component of an electronic cigarette; a locking unit for locking the carriage relative to the guide at the stopping station (S); characterized in that the locking unit comprises: two abutment elements mounted on the carriage and disposed at a predetermined mutual distance; and an inserting element which is: disposed at the stopping station (S); shaped in such a way that its first and second edges come into contact with the two abutment elements , respectively, when the carriage is at the stopping station (S); movable between a retracted position (R), where it does not contact the two abutment elements and allows the carriage to slide relative to the guide , and an advanced position (A) where it contacts the two abutment elements , thereby preventing the carriage from sliding relative to the guide ; and wherein each abutment element is rotatable about its axis (H) in such a way as to facilitate movement of the inserting element between the two positions (A, R). two abutment elements mounted on the carriage and disposed at a predetermined mutual distance; and an inserting element which is: disposed at the stopping station (S); shaped in such a way that its first and second edges come into contact with the two abutment elements , respectively, when the carriage is at the stopping station (S); movable between a retracted position (R), where it does not contact the two abutment elements and allows the carriage to slide relative to the guide , and an advanced position (A) where it contacts the two abutment elements , thereby preventing the carriage from sliding relative to the guide ; and wherein each abutment element is rotatable about its axis (H) in such a way as to facilitate movement of the inserting element between the two positions (A, R).
A method for transmitting data in a network comprising several nodes, wherein at least one node of said network, called a current node, implements: - a step of building a relay table identifying at least one node of the network, called a relay node, which is directly connected to the current node and which has at least one parent node in common with at least one parent node of the current node, called a common parent node, wherein the relay node is configured to receive data from the current node to relay said data from the current node to the common parent node, and - a step of data transmission comprising the following steps: - reading the relay table built for the current node, - selecting a relay node from the relay table, which can be used to relay data between the current node and one of said at least one parent node of the current node, called a common parent node, - transmitting data from the current node to the common parent node directly and via the relay node, so that the common parent node can receive and combine data from both the current node and the relay node. - a step of building a relay table identifying at least one node of the network, called a relay node, which is directly connected to the current node and which has at least one parent node in common with at least one parent node of the current node, called a common parent node, wherein the relay node is configured to receive data from the current node to relay said data from the current node to the common parent node, and - a step of data transmission comprising the following steps: - reading the relay table built for the current node, - selecting a relay node from the relay table, which can be used to relay data between the current node and one of said at least one parent node of the current node, called a common parent node, - transmitting data from the current node to the common parent node directly and via the relay node, - reading the relay table built for the current node, - selecting a relay node from the relay table, which can be used to relay data between the current node and one of said at least one parent node of the current node, called a common parent node, - transmitting data from the current node to the common parent node directly and via the relay node,