mhurhangee/ep-ind-claims huggingface dataset:
An applicator device (10, 250) for applying at least one agent to a target site, comprising: a rigid section (18, 280) configured for the passage of fluid therethrough, the rigid section having a proximal end portion (26, 284) and a distal end portion (22, 286), the proximal end portion configured to be in communication with and receive fluid from at least one fluid reservoir (80, 90); and a formable section attached to the distal end portion (22, 286) of the rigid section, the formable section configured to be shaped into a desired configuration, the formable section comprising a malleable tube and a lumen configured to receive fluid from the rigid section (18, 280); and characterized in that the malleable tube comprises two stiffening wires (240a, 240b) positioned in the tube wall at diametrically opposed positions, the two stiffening wires (240a, 240b) configured to provide restraint in at least one direction in a first axial plane extending through both stiffening wires and configured to provide for bending in at least one direction in a second axial plane perpendicular to the first plane and wherein the stiffening wires (240a, 240b) are configured to assist in retaining the malleable tube in the desired configuration. a rigid section (18, 280) configured for the passage of fluid therethrough, the rigid section having a proximal end portion (26, 284) and a distal end portion (22, 286), the proximal end portion configured to be in communication with and receive fluid from at least one fluid reservoir (80, 90); and a formable section attached to the distal end portion (22, 286) of the rigid section, the formable section configured to be shaped into a desired configuration, the formable section comprising a malleable tube and a lumen configured to receive fluid from the rigid section (18, 280); and characterized in that the malleable tube comprises two stiffening wires (240a, 240b) positioned in the tube wall at diametrically opposed positions, the two stiffening wires (240a, 240b) configured to provide restraint in at least one direction in a first axial plane extending through both stiffening wires and configured to provide for bending in at least one direction in a second axial plane perpendicular to the first plane and wherein the stiffening wires (240a, 240b) are configured to assist in retaining the malleable tube in the desired configuration.
An accessory for a computing device having a light source (110, 105, 115) comprising: a holster forming an opening adapted to receive the computing device; a light guide having a first end that is communicatively coupled to an outer surface of the holster and a second end that is communicatively coupled to an inner surface of the holster, wherein the light guide is integrated into the holster such that the light guide is exposed at the outer surface of the holster; and a plurality of light guide channels communicatively coupled to the inner surface of the holster, each light guide channel being communicatively coupled to the second end of the light guide, wherein in the event the computing device resides in the holster, light emitted from the computing device passes from at least one of the light guide channels to the second end of the light guide, and passes from the second end of the light guide to the first end of the light guide. a holster forming an opening adapted to receive the computing device; a light guide having a first end that is communicatively coupled to an outer surface of the holster and a second end that is communicatively coupled to an inner surface of the holster, wherein the light guide is integrated into the holster such that the light guide is exposed at the outer surface of the holster; and a plurality of light guide channels communicatively coupled to the inner surface of the holster, each light guide channel being communicatively coupled to the second end of the light guide, wherein in the event the computing device resides in the holster, light emitted from the computing device passes from at least one of the light guide channels to the second end of the light guide, and passes from the second end of the light guide to the first end of the light guide.
Lithography apparatus, comprising: a radiation source for producing radiation having a specific repetition frequency, an optical component for guiding the radiation within the lithography apparatus, an actuator device for displacing the optical component, a measurement device for determining a position of the optical component using a measurement signal having a specific measurement signal frequency, wherein the measurement signal frequency is unequal to the repetition frequency and unequal to integer multiples of the repetition frequency, and a setting device configured to set the measurement signal frequency in dependence on the repetition frequency. a radiation source for producing radiation having a specific repetition frequency, an optical component for guiding the radiation within the lithography apparatus, an actuator device for displacing the optical component, a measurement device for determining a position of the optical component using a measurement signal having a specific measurement signal frequency, wherein the measurement signal frequency is unequal to the repetition frequency and unequal to integer multiples of the repetition frequency, and a setting device configured to set the measurement signal frequency in dependence on the repetition frequency.
A system of at least two distribution body elements for a chemical and/or electrolytic surface treatment of a substrate, wherein each distribution body element has a plate shape, wherein each distribution body element comprises jet openings for distributing a process fluid from inside the distribution body element to the substrate to be treated and drain openings for draining the process fluid and an electric current through the distribution body element, wherein the process fluid is configured to return from the substrate as a cathode to an anode, whereas the electric current is configured to flow from the anode to the substrate as cathode, wherein the drain openings extend throughout, from one side to an opposite side of the distribution body element and the jet openings extend from an interior of the distribution body element to a surface of the distribution body element facing the substrate, wherein each drain opening is surrounded by several jet openings, wherein each distribution body element has a connecting area configured to be connected to a connecting area of another distribution body element to form a modular distribution body comprising at least two distribution body elements, and wherein the distribution body elements are connectable next to each other, such that, when connected, the process fluid and/or electric current is configured to be provided through the connecting areas to an active surface surrounded by the connecting areas wherein each distribution body element has a plate shape, wherein each distribution body element comprises jet openings for distributing a process fluid from inside the distribution body element to the substrate to be treated and drain openings for draining the process fluid and an electric current through the distribution body element, wherein the process fluid is configured to return from the substrate as a cathode to an anode, whereas the electric current is configured to flow from the anode to the substrate as cathode, wherein the drain openings extend throughout, from one side to an opposite side of the distribution body element and the jet openings extend from an interior of the distribution body element to a surface of the distribution body element facing the substrate, wherein each drain opening is surrounded by several jet openings, wherein each distribution body element has a connecting area configured to be connected to a connecting area of another distribution body element to form a modular distribution body comprising at least two distribution body elements, and wherein the distribution body elements are connectable next to each other, such that, when connected, the process fluid and/or electric current is configured to be provided through the connecting areas to an active surface surrounded by the connecting areas
An improved electric radiator filled with oil comprising: a plurality of radiating fins which are linked in turn, each of which being hollow sheet-like one with at least two grooves therein for leading oil, the upper and lower ends of each of which being formed or mounted with hollow connecting sleeves extended horizontally, and oil-inflow holes being formed inside said connecting sleeves; each of said radiating fins being communicated with the oil-inflow hole and being filled with oil; an electric-control box mounted on said radiating fins, in which a switch, a temperature controller, a heat protector and a wire being provided; a heater located in the inside of said radiating fins; wherein either the upper and lower ends (13, 14) of each said radiating fin are in the different vertical planes; each of said radiating fins having the same shape and dimension; further wherein the upper and lower ends (13, 14) are connected by a curved portion, said curved portion includes two folds (151, 152) which are reversed to each other in direction. a plurality of radiating fins which are linked in turn, each of which being hollow sheet-like one with at least two grooves therein for leading oil, the upper and lower ends of each of which being formed or mounted with hollow connecting sleeves extended horizontally, and oil-inflow holes being formed inside said connecting sleeves; each of said radiating fins being communicated with the oil-inflow hole and being filled with oil; an electric-control box mounted on said radiating fins, in which a switch, a temperature controller, a heat protector and a wire being provided; a heater located in the inside of said radiating fins; wherein either the upper and lower ends (13, 14) of each said radiating fin are in the different vertical planes; each of said radiating fins having the same shape and dimension; further wherein the upper and lower ends (13, 14) are connected by a curved portion, said curved portion includes two folds (151, 152) which are reversed to each other in direction.
A beam combiner array assembly comprising: an array block including a back wall having a thickness and a front surface, said array block including a plurality of aligned channels extending from the back wall to the front surface, wherein a respective bore extends through the back wall and into each channel; a lens array including a plurality of lenses, said lens array being mounted to the front surface of the block so that one of the lenses is aligned with each channel; a plurality of fiber flanges secured to the back wall of the block so that a separate one of the flanges is aligned with each channel, each flange including a bore extending therethrough; and a plurality of hollow core fibers where a separate one of the fibers extends through the bore in one of the flanges and one of the bores in the back wall so that an end of the fiber is positioned within the channel, wherein a beam that propagates down the fiber is emitted into the channel, focused by the lens and emitted from the assembly as a collimated beam, wherein a diameter of the bore in the flange is larger than an outer diameter of the fiber, wherein the bore in the back wall is larger than a diameter of the fiber, wherein a diameter of the channel is larger than the diameter of the bore in the flange and the bore in the back wall, and wherein the beam expands as it propagates down the channel from the fiber to the lens. an array block including a back wall having a thickness and a front surface, said array block including a plurality of aligned channels extending from the back wall to the front surface, wherein a respective bore extends through the back wall and into each channel; a lens array including a plurality of lenses, said lens array being mounted to the front surface of the block so that one of the lenses is aligned with each channel; a plurality of fiber flanges secured to the back wall of the block so that a separate one of the flanges is aligned with each channel, each flange including a bore extending therethrough; and a plurality of hollow core fibers where a separate one of the fibers extends through the bore in one of the flanges and one of the bores in the back wall so that an end of the fiber is positioned within the channel, wherein a beam that propagates down the fiber is emitted into the channel, focused by the lens and emitted from the assembly as a collimated beam, wherein a diameter of the bore in the flange is larger than an outer diameter of the fiber, wherein the bore in the back wall is larger than a diameter of the fiber, wherein a diameter of the channel is larger than the diameter of the bore in the flange and the bore in the back wall, and wherein the beam expands as it propagates down the channel from the fiber to the lens.
A method of making an anti-reflection coating, the method comprising: forming a first layer having a first porosity on a glass substrate, wherein the first layer is formed from a first coating solution comprising first nanoparticles of a first shape and/or size; and forming a second layer over and contacting the first layer, the second layer having a second porosity, wherein the second layer is formed from a second coating solution comprising second nanoparticles of a second shape and/or size; wherein the second porosity is greater than the first porosity, wherein the first silica-based nanoparticles have one of a substantially spherical shape or an elongated and/or asymmetrical shape, and wherein the second silica-based nanoparticles have the other of the substantially spherical shape or the elongated and/or asymmetrical shape. forming a first layer having a first porosity on a glass substrate, wherein the first layer is formed from a first coating solution comprising first nanoparticles of a first shape and/or size; and forming a second layer over and contacting the first layer, the second layer having a second porosity, wherein the second layer is formed from a second coating solution comprising second nanoparticles of a second shape and/or size; wherein the second porosity is greater than the first porosity, wherein the first silica-based nanoparticles have one of a substantially spherical shape or an elongated and/or asymmetrical shape, and wherein the second silica-based nanoparticles have the other of the substantially spherical shape or the elongated and/or asymmetrical shape.
A toner composition comprising toner particles comprising: a core comprising at least one crystalline resin, and one or more optional ingredients selected from the group consisting of colorants, optional waxes, and combinations thereof; and a shell comprising a high molecular weight amorphous polyester resin having a weight average molecular weight of from 20,000 to 1,000,000, as determined by Gel Permeation Chromatography using polystyrene standards, wherein the high molecular weight amorphous polyester resin comprises a poly(propoxylated bisphenol A co-fumarate) of the following formula: wherein m is from 10 to 5000, and wherein the high molecular weight amorphous polyester resin is present in an amount of from 20 to 100 percent by weight of the shell resin, has a glass transition temperature of from 40 to 100°C, a softening point of from 100 to 200°C, and a melt viscosity of from 50 to 1,000,000 Pa·s at 130°C. a core comprising at least one crystalline resin, and one or more optional ingredients selected from the group consisting of colorants, optional waxes, and combinations thereof; and a shell comprising a high molecular weight amorphous polyester resin having a weight average molecular weight of from 20,000 to 1,000,000, as determined by Gel Permeation Chromatography using polystyrene standards, wherein the high molecular weight amorphous polyester resin comprises a poly(propoxylated bisphenol A co-fumarate) of the following formula: wherein m is from 10 to 5000, and wherein the high molecular weight amorphous polyester resin is present in an amount of from 20 to 100 percent by weight of the shell resin, has a glass transition temperature of from 40 to 100°C, a softening point of from 100 to 200°C, and a melt viscosity of from 50 to 1,000,000 Pa·s at 130°C.
A process for producing amorphous rosuvastatin calcium, which comprises: a) hydrolysing a C 1 to C 5 alkyl ester of rosuvastatin with sodium hydroxide in the presence of tetrahydrofuran or with a base in the presence of a mixture of tetrahydrofuran and water, to obtain a solution of rosuvastatin sodium, b) converting thus obtained rosuvastatin sodium with a source of calcium to obtain rosuvastatin calcium, c) redigesting obtained rosuvastatin calcium in water, d) stirring the obtained rosuvastatin calcium, and e) isolating amorphous rosuvastatin calcium. a) hydrolysing a C 1 to C 5 alkyl ester of rosuvastatin with sodium hydroxide in the presence of tetrahydrofuran or with a base in the presence of a mixture of tetrahydrofuran and water, to obtain a solution of rosuvastatin sodium, b) converting thus obtained rosuvastatin sodium with a source of calcium to obtain rosuvastatin calcium, c) redigesting obtained rosuvastatin calcium in water, d) stirring the obtained rosuvastatin calcium, and e) isolating amorphous rosuvastatin calcium.
Metal-encapsulated, gas-insulated, combined, polyphase, preferably three-phase disconnector and earthing switch, which is accommodated in a housing, with one contact bolt per phase which is capable of moving in its longitudinal axis and, in a first position, connects two active parts (18, 24) to one another and, in a second position, is connected to a fixed earthing contact piece, with a drive motor for the contact bolts, which drive motor actuates the contact bolts via a drive spindle, characterized in that the lines of movement of the contact bolts of all phases lie in one plane, wherein the contact bolts can be driven by in each case one insulating spindle, which is aligned with the line of movement, wherein the drive spindle lies in the plane of the lines of movement and runs perpendicular to the insulating spindles and is coupled thereto via in each case one angle gear mechanism, and wherein the angle gear mechanism for driving the contact bolts is accommodated in the earthing contact pieces.
A solar panel assembly comprising a: PV module comprising one or more PV cells within a plastic frame, and the frame comprising plastic front (35A, 35B) and rear base attachments (35C, 35D), the front base attachments (35A, 35B) pivotally attached to the frame of the PV module and the rear base attachments (35C, 35D) slideably engaged with the frame of the PV module; Plastic base comprising two spaced apart mounting bases (38A, 38B) joined together by a connector board, each mounting base (38A, 38B) equipped with plastic front pegs (45A, 45B) to pivotally engage the front base attachments (35C, 35D) of the frame of the PV module, and rear slots engaged in a snap-fit relationship with the rear base attachments (35C, 35D) of the PV module; Plastic wind deflector engaged in a snap-fit relationship with each of the two rear base attachments (35C, 35D); Plastic junction box (56A-D) integral with the PV module frame; and Two plastic self-aligning devices (57A-D) for joining adjacent PV modules to one another, each device (57A-D) integral with the PV module frame. PV module comprising one or more PV cells within a plastic frame, and the frame comprising plastic front (35A, 35B) and rear base attachments (35C, 35D), the front base attachments (35A, 35B) pivotally attached to the frame of the PV module and the rear base attachments (35C, 35D) slideably engaged with the frame of the PV module; Plastic base comprising two spaced apart mounting bases (38A, 38B) joined together by a connector board, each mounting base (38A, 38B) equipped with plastic front pegs (45A, 45B) to pivotally engage the front base attachments (35C, 35D) of the frame of the PV module, and rear slots engaged in a snap-fit relationship with the rear base attachments (35C, 35D) of the PV module; Plastic wind deflector engaged in a snap-fit relationship with each of the two rear base attachments (35C, 35D); Plastic junction box (56A-D) integral with the PV module frame; and Two plastic self-aligning devices (57A-D) for joining adjacent PV modules to one another, each device (57A-D) integral with the PV module frame.
A filter detachably attachable to a filter apparatus, comprising: a filter body being hollow; and a lid (3; 30), wherein the filter body comprises an upper opening on the upper side and a lower opening on the lower side, when attached to the filter apparatus, wherein the course of dusty air current passing through the filter is from the inside to the outside, the lid is attached to an upper part of the filter body and includes a top plate covering the upper opening of the filter body and a side wall fitted with the upper part of the filter body, a lower end (32a, 33a) of the side wall (32, 33) being located below an upper end of the filter body, a ceiling portion contactable with a liquid injected to an inside of the filter body is disposed on the upper opening of the filter body, and a lower surface (5b to 5h) of the ceiling portion is located at a lower end position of the side wall or below the lower end position such that no air pocket forms in the upper part of the inside of the filter body when liquid is injected to the inside of the filter body and the injected liquid comes in contact with the entire area of the lower surface (5b to 5h), wherein the side wall (32, 33) of the lid is an outer wall disposed on a peripheral edge of the top plate and located outside the filter body, wherein the ceiling portion includes resin filled on a back side of the lid, and wherein the resin is filled in each of the upper opening of the filter body, a gap between the top plate and the filter body, and a gap between the outer wall and the filter body. a filter body being hollow; and a lid (3; 30), wherein the filter body comprises an upper opening on the upper side and a lower opening on the lower side, when attached to the filter apparatus, wherein the course of dusty air current passing through the filter is from the inside to the outside, the lid is attached to an upper part of the filter body and includes a top plate covering the upper opening of the filter body and a side wall fitted with the upper part of the filter body, a lower end (32a, 33a) of the side wall (32, 33) being located below an upper end of the filter body, a ceiling portion contactable with a liquid injected to an inside of the filter body is disposed on the upper opening of the filter body, and a lower surface (5b to 5h) of the ceiling portion is located at a lower end position of the side wall or below the lower end position such that no air pocket forms in the upper part of the inside of the filter body when liquid is injected to the inside of the filter body and the injected liquid comes in contact with the entire area of the lower surface (5b to 5h), wherein the side wall (32, 33) of the lid is an outer wall disposed on a peripheral edge of the top plate and located outside the filter body, wherein the ceiling portion includes resin filled on a back side of the lid, and wherein the resin is filled in each of the upper opening of the filter body, a gap between the top plate and the filter body, and a gap between the outer wall and the filter body.