mhurhangee/ep-ind-claims huggingface dataset:
A massager, comprising: a flexible sleeve, defining an adsorption port; a support shell, defining an opening; a pressure generator, mounted in the support shell, the pressure generator comprises a housing with an opening communicated to the opening of the support shell and a receiving space, and a movable member movably inserted into the receiving space, characterized in that, the pressure generator further comprises: a driving device, comprising a motor, a transmission assembly having an eccentric transmission structure including an eccentric member and a connecting rod, the eccentric member connected with the motor, and the connecting rod connected between the eccentric member and the movable member; the flexible sleeve is configured to sleeve around the housing, the adsorption port is arranged in front of the housing and directly communicated with the opening of the housing, and the motor is configured to drive the movable member to reciprocate inside the receiving space without deformation, so as to periodically generate a negative pressure and a positive pressure at the adsorption port. a flexible sleeve, defining an adsorption port; a support shell, defining an opening; a pressure generator, mounted in the support shell, the pressure generator comprises a housing with an opening communicated to the opening of the support shell and a receiving space, and a movable member movably inserted into the receiving space, characterized in that, the pressure generator further comprises: a driving device, comprising a motor, a transmission assembly having an eccentric transmission structure including an eccentric member and a connecting rod, the eccentric member connected with the motor, and the connecting rod connected between the eccentric member and the movable member; the flexible sleeve is configured to sleeve around the housing, the adsorption port is arranged in front of the housing and directly communicated with the opening of the housing, and the motor is configured to drive the movable member to reciprocate inside the receiving space without deformation, so as to periodically generate a negative pressure and a positive pressure at the adsorption port.
A fastening mechanism for coupling a track rail to a substrate comprising: a rail plate formed of a metallic material and including a lower side structured to face a substrate, and an upper side including a rail support surface extending between a front edge and a back edge of the rail plate, and the rail plate further including an outer perimeter and an inner perimeter defining an opening; a base plate formed of a metallic material, the base plate including a first lateral end and a second lateral end having a first bore and a second bore formed therein, respectively, and each structured to receive an anchor extending into the substrate, and the base plate being positioned within the opening such that the rail plate surrounds the base plate and a gap extends peripherally between the rail plate and the base plate; and an overmolded coating formed of a non-metallic material that is resiliently deformable relative to the metallic material, and the overmolded coating encasing the rail plate and the base plate and at least partially filling the gap to resiliently couple the rail plate and the base plate together. a rail plate formed of a metallic material and including a lower side structured to face a substrate, and an upper side including a rail support surface extending between a front edge and a back edge of the rail plate, and the rail plate further including an outer perimeter and an inner perimeter defining an opening; a base plate formed of a metallic material, the base plate including a first lateral end and a second lateral end having a first bore and a second bore formed therein, respectively, and each structured to receive an anchor extending into the substrate, and the base plate being positioned within the opening such that the rail plate surrounds the base plate and a gap extends peripherally between the rail plate and the base plate; and an overmolded coating formed of a non-metallic material that is resiliently deformable relative to the metallic material, and the overmolded coating encasing the rail plate and the base plate and at least partially filling the gap to resiliently couple the rail plate and the base plate together.
An intermediate transferor (22; 501) for an image forming apparatus, comprising: a base layer; an elastic layer layered on the base layer; and fine particles on the elastic layer, being partially embedded in the elastic layer to form an uneven surface of the elastic layer, the fine particles comprising a conductive layer on a surface of particles having high electrical resistance, and having a volume resistivity of 1 × 10° Ω·cm to 1 × 10 6 Ω cm. a base layer; an elastic layer layered on the base layer; and fine particles on the elastic layer, being partially embedded in the elastic layer to form an uneven surface of the elastic layer, the fine particles comprising a conductive layer on a surface of particles having high electrical resistance, and having a volume resistivity of 1 × 10° Ω·cm to 1 × 10 6 Ω cm.
A computer-implemented method for routing requests with different protocols to the same destination, the computer-implemented method being performed by one or more processors executing computer executable instructions for the computer-implemented method, and the computer-implemented method comprising: receiving a first request that uses a first protocol, the first request including a first request source identifier and a first request destination identifier; identifying, based on both the first request source identifier and the first request destination identifier, a destination to send the first request to; identifying a first identifier of an equivalence class of which the first protocol is part; hashing the first request source identifier, the first request destination identifier and the first equivalence class identifier, the resulting first hash value indicating the destination to send the first request to; storing the first hash value for the first request, the first hash value indicating the destination the first request was sent to; routing the first request to the destination; receiving a second request that uses a second, different protocol, the second request including a second request source identifier and a second request destination identifier; identifying a second identifier of an equivalence class of which the second protocol is part; hashing the second request source identifier, the second request destination identifier and the second equivalence class identifier to create a second hash value; determining that the second hash value matches the first hash value; and routing the second request to the destination indicated by the first hash value. receiving a first request that uses a first protocol, the first request including a first request source identifier and a first request destination identifier; identifying, based on both the first request source identifier and the first request destination identifier, a destination to send the first request to; identifying a first identifier of an equivalence class of which the first protocol is part; hashing the first request source identifier, the first request destination identifier and the first equivalence class identifier, the resulting first hash value indicating the destination to send the first request to; storing the first hash value for the first request, the first hash value indicating the destination the first request was sent to; routing the first request to the destination; receiving a second request that uses a second, different protocol, the second request including a second request source identifier and a second request destination identifier; identifying a second identifier of an equivalence class of which the second protocol is part; hashing the second request source identifier, the second request destination identifier and the second equivalence class identifier to create a second hash value; determining that the second hash value matches the first hash value; and routing the second request to the destination indicated by the first hash value.
A copolymer comprising a polyphenylene ether component and a dicyclopentadiene copolymer component comprising a structure of Formulas D1, D2, D3-1, D3-2, or D3-3 wherein: each occurrence of Z 1 and Z 3 independently comprises halogen, unsubstituted or substituted C 1 -C 12 hydrocarbyl provided that the hydrocarbyl group is not tertiary hydrocarbyl, C 1 -C 12 hydrocarbylthio, C 1 -C 12 hydrocarbyloxy, or C 2 -C 12 halohydrocarbyloxy wherein at least two carbon atoms separate the halogen and oxygen atoms; each occurrence of Z 2 and Z 4 independently comprises hydrogen, halogen, unsubstituted or substituted C 1 -C 12 hydrocarbyl provided that the hydrocarbyl group is not tertiary hydrocarbyl, C 1 -C 12 hydrocarbylthio, C 1 -C 12 hydrocarbyloxy, or C 2 -C 12 halohydrocarbyloxy wherein at least two carbon atoms separate the halogen and oxygen atoms; each occurrence of R 1 to R 4 independently comprises hydrogen, C 1 -C 12 hydrocarbyl, or C 1 -C 12 hydrocarbyloxy; x is at least one 1 to 50; y is at least one 1 to 50; n at least one 1 to 100; and Q 1 comprises a single bond, hydrogen, or a terminal functional group. each occurrence of Z 1 and Z 3 independently comprises halogen, unsubstituted or substituted C 1 -C 12 hydrocarbyl provided that the hydrocarbyl group is not tertiary hydrocarbyl, C 1 -C 12 hydrocarbylthio, C 1 -C 12 hydrocarbyloxy, or C 2 -C 12 halohydrocarbyloxy wherein at least two carbon atoms separate the halogen and oxygen atoms; each occurrence of Z 2 and Z 4 independently comprises hydrogen, halogen, unsubstituted or substituted C 1 -C 12 hydrocarbyl provided that the hydrocarbyl group is not tertiary hydrocarbyl, C 1 -C 12 hydrocarbylthio, C 1 -C 12 hydrocarbyloxy, or C 2 -C 12 halohydrocarbyloxy wherein at least two carbon atoms separate the halogen and oxygen atoms; each occurrence of R 1 to R 4 independently comprises hydrogen, C 1 -C 12 hydrocarbyl, or C 1 -C 12 hydrocarbyloxy; x is at least one 1 to 50; y is at least one 1 to 50; n at least one 1 to 100; and Q 1 comprises a single bond, hydrogen, or a terminal functional group.
A method for producing a cork stopper, comprising: mixing cork grains and an adhesive; compression molding the mixture to give an intermediate; placing the intermediate in a cavity of a mold; and then heating the intermediate to expand the cork grains.
Intraocular lens provided for implantation into an eye, comprising a lens body having a central region, haptics (19, 28, 29) for holding the intraocular lens in place within the eye after implantation, and activatable zones (31, 32, 33, 34, 35, 36, 37, 38) outside the central region, wherein the haptics (28; 29) comprise the activatable zones and each haptic (28; 29) comprises a root connecting the haptic (28; 29) to the lens body, characterized in that, several activatable zones (31-34; 35-38) are arranged in the root of each haptic (28; 29) and, after implantation of the intraocular lens into the eye, at least one of the position, the rotation and the tilt of the intraocular lens within the eye changes upon only irradiating the appropriate activatable zone(s) with laser radiation.
A retroreflective material comprising: a fixing resin layer; a transparent microsphere embedded in the fixing resin layer; a reflective layer provided on a surface of the transparent microsphere opposite to incident light; and an ink-jet receptive layer provided on an outermost surface near the incident light, wherein the transparent microsphere has a refractive index of 1.6 to 2.5, the ink-jet receptive layer comprises a polyurethane resin containing, as structural units, a polycarbonate polyol, a C 3-15 dicarboxylic acid, and a polyisocyanate, the C 3-15 dicarboxylic acid is at least one member selected from the group consisting of 1,10-decanedicarboxylic acid, 1,9-nonanedicarboxylic acid, and 1,8-octanedicarboxylic acid, and the polyurethane resin is obtained by synthesizing a polycarbonate polyester polyol by reacting the polycarbonate polyol with the C 3-15 dicarboxylic acid, and then reacting the polycarbonate polyester polyol with the polyisocyanate. a fixing resin layer; a transparent microsphere embedded in the fixing resin layer; a reflective layer provided on a surface of the transparent microsphere opposite to incident light; and an ink-jet receptive layer provided on an outermost surface near the incident light, wherein the transparent microsphere has a refractive index of 1.6 to 2.5, the ink-jet receptive layer comprises a polyurethane resin containing, as structural units, a polycarbonate polyol, a C 3-15 dicarboxylic acid, and a polyisocyanate, the C 3-15 dicarboxylic acid is at least one member selected from the group consisting of 1,10-decanedicarboxylic acid, 1,9-nonanedicarboxylic acid, and 1,8-octanedicarboxylic acid, and the polyurethane resin is obtained by synthesizing a polycarbonate polyester polyol by reacting the polycarbonate polyol with the C 3-15 dicarboxylic acid, and then reacting the polycarbonate polyester polyol with the polyisocyanate.
The use of a coating agent composition comprising at least one binder component A and at least one curing component B, the binder component A comprising A1 at least one polyol component comprising at least one poly(oxyalkylene) glycol, A2 at least one aromatic diamine, A3 silicone elastomer particles, and A4 at least one polyurethane urea, and the curing component B comprising B1 at least one urethane group-containing component comprising nonblocked isocyanate groups and B2 at least one aromatic diisocyanate from methylenedi(phenyl isocyanate), the curing component B having an amount of nonblocked isocyanate groups of 10 to 30 wt%, and the solids content of the coating agent composition being greater than 95 wt%, for lining containers. A1 at least one polyol component comprising at least one poly(oxyalkylene) glycol, A2 at least one aromatic diamine, A3 silicone elastomer particles, and A4 at least one polyurethane urea, B1 at least one urethane group-containing component comprising nonblocked isocyanate groups and B2 at least one aromatic diisocyanate from methylenedi(phenyl isocyanate), the curing component B having an amount of nonblocked isocyanate groups of 10 to 30 wt%,
Mirror arrangement for a lithography exposure apparatus comprising: - a plurality of mirror elements (2a, 2b) adjacently arranged and jointly forming a mirror surface of the mirror arrangement, - each mirror element (2a, 2b) comprising a substrate (4a, 4b) and a multilayer arrangement (5a, 5b) on the substrate (4a, 4b), - the multilayer arrangement (5a, 5b) including a reflective layer system (6a, 6b) having a radiation entrance surface (7a, 7b) forming a portion of the mirror surface and a piezoelectric layer (8a, 8b) arranged between the radiation entrance surface (7a, 7b) and the substrate (4a, 4b), - each mirror element (2a, 2b) comprising an electrode arrangement (9a, 9b, 9c) associated with the piezoelectric layer (8a, 8b) for generating an electric field, wherein a layer thickness (tp) of the piezoelectric layer (8a, 8b) can be controlled by the electric field, characterized by an interconnection arrangement electrically interconnecting adjacent first and second electrodes (9a, 9b) of adjacent electrode arrangements (9a, 9b, 9c), so that an interconnection electric field is generated in a gap region between the first and second electrodes (9a, 9b), wherein the interconnection electric field generates a continuous transition between a first electric field at the first electrode and a second electric field at the second electrode. - a plurality of mirror elements (2a, 2b) adjacently arranged and jointly forming a mirror surface of the mirror arrangement, - each mirror element (2a, 2b) comprising a substrate (4a, 4b) and a multilayer arrangement (5a, 5b) on the substrate (4a, 4b), - the multilayer arrangement (5a, 5b) including a reflective layer system (6a, 6b) having a radiation entrance surface (7a, 7b) forming a portion of the mirror surface and a piezoelectric layer (8a, 8b) arranged between the radiation entrance surface (7a, 7b) and the substrate (4a, 4b), - each mirror element (2a, 2b) comprising an electrode arrangement (9a, 9b, 9c) associated with the piezoelectric layer (8a, 8b) for generating an electric field, wherein a layer thickness (tp) of the piezoelectric layer (8a, 8b) can be controlled by the electric field,
A method for preparing a flaked cereal product comprising: forming a workable heterogeneous cooked cereal dough; directing the cereal dough through a plurality of spaced geometric openings in a breaker plate; establishing a plurality of dough streams; merging the plurality of streams to form a single dough extrudate emerging from an extrusion die with a face that is uniform; slicing the dough extrudate at a predetermined thickness to create individual cereal dough discs; and drying the cereal dough discs, forming individual, curled cereal flakes, wherein each curled cereal flake includes a flake body having a plurality of spaced, interconnected surface bumps and varying density regions throughout its body which are interconnected. forming a workable heterogeneous cooked cereal dough; directing the cereal dough through a plurality of spaced geometric openings in a breaker plate; establishing a plurality of dough streams; merging the plurality of streams to form a single dough extrudate emerging from an extrusion die with a face that is uniform; slicing the dough extrudate at a predetermined thickness to create individual cereal dough discs; and drying the cereal dough discs, forming individual, curled cereal flakes, wherein each curled cereal flake includes a flake body having a plurality of spaced, interconnected surface bumps and varying density regions throughout its body which are interconnected.
A method of moulding a charge during the manufacture of a composite part, the method comprising: placing the charge, a support membrane, and a diaphragm (4, 6) on a male tool, the support membrane and diaphragm being positioned on opposite sides of the charge, the charge having a first part which is positioned above a top of the male tool and a second part which projects to one side of the male tool; supporting the weight of the second part of the charge with the support membrane; and progressively deforming the support membrane and the second part of the charge against a side of the male tool by applying a pressure difference across the diaphragm and stretching the diaphragm over the male tool as the pressure difference is applied, wherein the diaphragm has a stiffness in the plane of the diaphragm which is higher than the stiffness of the support membrane in the plane of the support membrane, the diaphragm is a multi-layer diaphragm (4, 6), a first layer of the diaphragm has a relatively high tensile modulus, and a second layer of the diaphragm has a relatively low tensile modulus. placing the charge, a support membrane, and a diaphragm (4, 6) on a male tool, the support membrane and diaphragm being positioned on opposite sides of the charge, the charge having a first part which is positioned above a top of the male tool and a second part which projects to one side of the male tool; supporting the weight of the second part of the charge with the support membrane; and progressively deforming the support membrane and the second part of the charge against a side of the male tool by applying a pressure difference across the diaphragm and stretching the diaphragm over the male tool as the pressure difference is applied, wherein the diaphragm has a stiffness in the plane of the diaphragm which is higher than the stiffness of the support membrane in the plane of the support membrane, the diaphragm is a multi-layer diaphragm (4, 6), a first layer of the diaphragm has a relatively high tensile modulus, and a second layer of the diaphragm has a relatively low tensile modulus.
A method for surface treatment of a powdery metal material for manufacturing a harmonic structure metal in which a fine grain region and a coarse grain region are harmonically arranged comprising the steps of: ejecting ejection powder with a compressed gas in a cabinet by use of a blasting machine and causing the ejection powder to collide against an object to be collided, suctioning an inside of the cabinet by dust collecting means and removing/collecting powder dusts, namely surface oxides such as oxidized scale exfoliated from the surface of the powdery metal material; and performing blasting by causing a powdery metal material having an average grain diameter of 10 to 200 μm and a medium substance having hardness equal to or higher than that of the powdery metal material to collide with each other repeatedly at an ejection speed of 100 to 300 m/sec, and exfoliate surface oxides from the powdery metal material and forming a fine grain region called a shell in the vicinity of the surface of the powdery material and a region at a center part called a core maintaining an original crystal grain diameter, the fine grain region covering this coarse grain region, wherein the fine grain region which is formed in the vicinity of the surface of the powdery metal material has a crystal grain with a diameter smaller than that of the crystal grain on a center portion of the powdery metal material which is formed, wherein the fine grain region of the powdery metal material is formed on the surface of the powdery metal material to a depth of approximately 20% at the maximum with respect to the grain diameter if the powdery metal material as the treatment target is less than 100 μm and formed to a depth of approximately 10% at the maximum with respect to the grain diameter if the powdery metal material as the treatment target is 100 μm or more, sintering the powdery material or using the powdery material for formation of a metal film by thermal spraying, and obtaining a network-state structure formed of the fine grain regions of the powdery metal materials connected to each other and the coarse grain regions arranged harmonically in the fine grain regions. ejecting ejection powder with a compressed gas in a cabinet by use of a blasting machine and causing the ejection powder to collide against an object to be collided, suctioning an inside of the cabinet by dust collecting means and removing/collecting powder dusts, namely surface oxides such as oxidized scale exfoliated from the surface of the powdery metal material; and performing blasting by causing a powdery metal material having an average grain diameter of 10 to 200 μm and a medium substance having hardness equal to or higher than that of the powdery metal material to collide with each other repeatedly at an ejection speed of 100 to 300 m/sec, and exfoliate surface oxides from the powdery metal material and forming a fine grain region called a shell in the vicinity of the surface of the powdery material and a region at a center part called a core maintaining an original crystal grain diameter, the fine grain region covering this coarse grain region,