mhurhangee/ep-ind-claims huggingface dataset:
A floor cleaner (10, 100) comprising: a base (12, 104) configured to move over a surface to be cleaned; a handle (20, 106) coupled to the base (12, 104) and the handle (20, 106) operable to move the base (12, 104) over the surface; a dispensing nozzle (24, 114) configured to dispense a fluid onto the surface to be cleaned; an actuator (26, 115) that controls a flow of the fluid through the dispensing nozzle (24, 114); and a supply tank in fluid communication with the dispensing nozzle (24, 114), the supply tank including, a tank body configured to store the fluid, characterized in that the supply tank further comprises a collar coupled to the tank body, the collar including a latch (136, 138) that removably couples the supply tank to the floor cleaner. a base (12, 104) configured to move over a surface to be cleaned; a handle (20, 106) coupled to the base (12, 104) and the handle (20, 106) operable to move the base (12, 104) over the surface; a dispensing nozzle (24, 114) configured to dispense a fluid onto the surface to be cleaned; an actuator (26, 115) that controls a flow of the fluid through the dispensing nozzle (24, 114); and a supply tank in fluid communication with the dispensing nozzle (24, 114), the supply tank including, a tank body configured to store the fluid, characterized in that the supply tank further comprises a collar coupled to the tank body, the collar including a latch (136, 138) that removably couples the supply tank to the floor cleaner. a tank body configured to store the fluid, characterized in that the supply tank further comprises a collar coupled to the tank body, the collar including a latch (136, 138) that removably couples the supply tank to the floor cleaner.
An optoelectronic device comprising: a substrate formed of magnesium oxide; and a multi-region stack epitaxially deposited upon the substrate, wherein regions are layers, wherein the multi-region stack comprises a non-polar crystalline material structure along a growth direction, wherein the multi-region stack comprises, in order starting from the substrate: a first region comprising a buffer layer; a second region comprising a crystal structure improvement layer; a third region comprising a first conductivity type; a fourth region comprising an intrinsic conductivity type layer; and a fifth region comprising a second conductivity type, the second conductivity type being opposite the first conductivity type; wherein at least one region of the multi-region stack is a bulk semiconductor material comprising Mg (x) Zn (1-x) O; and wherein at least one region of the multi-region stack is a superlattice comprising MgO and Mg (x) Zn (1-x) O a substrate formed of magnesium oxide; and a multi-region stack epitaxially deposited upon the substrate, wherein regions are layers, wherein the multi-region stack comprises a non-polar crystalline material structure along a growth direction, wherein the multi-region stack comprises, in order starting from the substrate: a first region comprising a buffer layer; a second region comprising a crystal structure improvement layer; a third region comprising a first conductivity type; a fourth region comprising an intrinsic conductivity type layer; and a fifth region comprising a second conductivity type, the second conductivity type being opposite the first conductivity type; a first region comprising a buffer layer; a second region comprising a crystal structure improvement layer; a third region comprising a first conductivity type; a fourth region comprising an intrinsic conductivity type layer; and a fifth region comprising a second conductivity type, the second conductivity type being opposite the first conductivity type; wherein at least one region of the multi-region stack is a bulk semiconductor material comprising Mg (x) Zn (1-x) O; and wherein at least one region of the multi-region stack is a superlattice comprising MgO and Mg (x) Zn (1-x) O
A stack of eye shields, comprising a plurality of eye shields, each eye shield having: a frame having at least two receivers (18, 19) located along the frame and at least two latches (16, 17), each of the latches (16, 17) located to engage one of the receivers (18, 19), the frame having a plurality of spaced apart elevated support surfaces along and rising above an upper portion of the frame; and a lens installed on the frame and having at least two lens apertures (12a, 12b) extending through the lens, each of the apertures (12a, 12b) aligned with one of the receivers (18, 19) of the frame with each of the latches (16, 17) engaged with one of the receivers (18, 19) securing the lens to the frame; wherein the plurality of eye shields is provided in a stack with the eye shields stacked one on top of another with each of the eye shields oriented substantially vertical and parallel to another one of the eye shields with each of the elevated surfaces of an overlying one of the frames of the eye shields in the stack being slightly forward of and overlapping a corresponding one of the elevated surfaces of an immediately underlying one of the frames of the eye shields in the stack, with each frame of each eye shield of the stack having a gap therebetween except at contact surfaces of the frames where the elevated support surfaces contact an adjacent lower surface of the frame of its overlying eye shield, whereby the elevated support surfaces of the frames stabilize the stack of the eye shields for shipping and dispensing of the stack of the eye shields. a frame having at least two receivers (18, 19) located along the frame and at least two latches (16, 17), each of the latches (16, 17) located to engage one of the receivers (18, 19), the frame having a plurality of spaced apart elevated support surfaces along and rising above an upper portion of the frame; and a lens installed on the frame and having at least two lens apertures (12a, 12b) extending through the lens, each of the apertures (12a, 12b) aligned with one of the receivers (18, 19) of the frame with each of the latches (16, 17) engaged with one of the receivers (18, 19) securing the lens to the frame; wherein the plurality of eye shields is provided in a stack with the eye shields stacked one on top of another with each of the eye shields oriented substantially vertical and parallel to another one of the eye shields with each of the elevated surfaces of an overlying one of the frames of the eye shields in the stack being slightly forward of and overlapping a corresponding one of the elevated surfaces of an immediately underlying one of the frames of the eye shields in the stack, with each frame of each eye shield of the stack having a gap therebetween except at contact surfaces of the frames where the elevated support surfaces contact an adjacent lower surface of the frame of its overlying eye shield, whereby the elevated support surfaces of the frames stabilize the stack of the eye shields for shipping and dispensing of the stack of the eye shields.
Leak detection module for checking the leaktightness of an object to be tested using tracer gas, comprising a leak detector comprising: - a pumping device comprising: - a turbomolecular vacuum pump having an intake and a delivery, - a rough-vacuum pump, an intake of which is connected to the delivery of the turbomolecular vacuum pump, and - a gas analyser connected to the turbomolecular vacuum pump, characterized in that it further comprises a signal processing unit connected to the gas analyser and configured to correct the raw output signal of the gas analyser by means of an output signal that is representative of the variations in the intake pressure of the rough-vacuum pump. - a pumping device comprising: - a turbomolecular vacuum pump having an intake and a delivery, - a rough-vacuum pump, an intake of which is connected to the delivery of the turbomolecular vacuum pump, and - a gas analyser connected to the turbomolecular vacuum pump,
Method for coupling concrete parts (85, 86), wherein one of said parts is provided with a series of projecting reinforcing bars which are encased in the concrete, and wherein the other of said concrete parts is provided with a series of cavities which match with said series of reinforcing bars, wherein the series of reinforcing bars are secured in the series of cavities, said securing step comprising the step of filling the space between the concrete part and said metal part with a material which bonds to said metal part and to said concrete part, and wherein said concrete part with the series of cavities which extend from an outer wall thereof is provided by providing a formwork, and placing a series of bodies (92, 102) into said formwork, wherein an end face of each of said bodies is placed against the formwork or against a common bearing plate placed against the formwork, and wherein each of said bodies comprises a relatively rigid core (93, 103) with elastomer material (94, 104) arranged around the core, the shape of which body at least partially corresponds to said cavity and that side of which body that adjoins the concrete material comprising the elastomer material, the mechanical properties of said body being such that, when tensile force is applied to said body in the vicinity of said boundary surface, the diameter of said body is considerably reduced, with the result that said body, after the concrete has been poured and at least partially set, can be removed from said shaped cavity, which diameter of said body can be elastically reduced, pouring and at least partially setting the concrete, and detaching said formwork and said series of bodies.
A method for displaying application information, applied to a mobile terminal comprising a first display screen disposed on an upper surface of a housing of the mobile terminal and a second display screen disposed on a first side surface of the housing, wherein the method comprises: displaying (S301, S401, S10501) a current interface on the first display screen of the mobile terminal, the current interface being an interface corresponding to a first application running in foreground of the mobile terminal; obtaining (S302, S402) first application information of a second application installed on the mobile terminal while the first display screen is displaying the current interface; and displaying (S303, S403) the first application information on the second display screen of the mobile terminal while the first display screen is displaying the current interface, wherein the mobile terminal further comprises a third display screen, the third display screen is disposed on a second side surface of the housing, and the second side surface is different from the first side surface, and characterised in that the method further comprises, before the displaying (S303, S403) the first application information on the second display screen of the mobile terminal: determining a first holding status in which the mobile terminal is held at a current time, and selecting the second display screen corresponding to the first holding status from the second display screen and the third display screen according to the first holding status. displaying (S301, S401, S10501) a current interface on the first display screen of the mobile terminal, the current interface being an interface corresponding to a first application running in foreground of the mobile terminal; obtaining (S302, S402) first application information of a second application installed on the mobile terminal while the first display screen is displaying the current interface; and displaying (S303, S403) the first application information on the second display screen of the mobile terminal while the first display screen is displaying the current interface, wherein the mobile terminal further comprises a third display screen, the third display screen is disposed on a second side surface of the housing, and the second side surface is different from the first side surface, and characterised in that the method further comprises, before the displaying (S303, S403) the first application information on the second display screen of the mobile terminal: determining a first holding status in which the mobile terminal is held at a current time, and selecting the second display screen corresponding to the first holding status from the second display screen and the third display screen according to the first holding status.
A shader processing unit for a graphics processing unit, the shader processing unit configured to execute one or more shaders, the one or more shaders comprising one or more ray tracing shaders that process ray data associated with one or more rays, the ray data for a ray comprising a plurality of ray data elements, the shader processing unit comprising: storage; and load logic configured to: receive a ray load instruction that comprises: (i) information identifying a load group of a plurality of load groups, each load group of the plurality of load groups comprising one or more ray data elements of the plurality of ray data elements, and (ii) information (304, 308) identifying one or more ray data elements of the identified load group to be retrieved from an external unit; in response to receiving the ray load instruction, send one or more load requests to the external unit which cause the external unit to retrieve the identified ray data elements of the identified load group for one or more rays; receive the identified ray data elements for the one or more rays from the external unit; and store the received ray data elements in the storage for processing by a ray tracing shader of the one or more ray tracing shaders. storage; and load logic configured to: receive a ray load instruction that comprises: (i) information identifying a load group of a plurality of load groups, each load group of the plurality of load groups comprising one or more ray data elements of the plurality of ray data elements, and (ii) information (304, 308) identifying one or more ray data elements of the identified load group to be retrieved from an external unit; in response to receiving the ray load instruction, send one or more load requests to the external unit which cause the external unit to retrieve the identified ray data elements of the identified load group for one or more rays; receive the identified ray data elements for the one or more rays from the external unit; and store the received ray data elements in the storage for processing by a ray tracing shader of the one or more ray tracing shaders. receive a ray load instruction that comprises: (i) information identifying a load group of a plurality of load groups, each load group of the plurality of load groups comprising one or more ray data elements of the plurality of ray data elements, and (ii) information (304, 308) identifying one or more ray data elements of the identified load group to be retrieved from an external unit; in response to receiving the ray load instruction, send one or more load requests to the external unit which cause the external unit to retrieve the identified ray data elements of the identified load group for one or more rays; receive the identified ray data elements for the one or more rays from the external unit; and store the received ray data elements in the storage for processing by a ray tracing shader of the one or more ray tracing shaders.
A process for preparing a compound of formula (C2-1), the process comprising the step of reacting a compound of formula with a compound of formula in a solvent in the presence of at least one catalyst and a co-catalyst or additive, wherein P is a protecting group; T and X1 are independently selected from the group consisting of Cl, Br, I, CF 3 SO 3, CH 3 C 6 H 4 SO 3, O(t-BuC), MgCl, MgBr, MgI, Sn(Alkyl) 3, Si(Alkyl) 3, Si(OAlkyl) 3, ZnCl, ZnBr, ZnI, ZnAlkyl, B 2, B(OC(CH 3) 2 C(CH 3) 2 O), 9-borabicyclo[3.3.1]nonane, bis(1,2-dimethylpropyl)borane, catecholborane, dicyclohexylboronyl, BF 3 -, B-(N-methyliminodiacetic acid); the catalyst is Pd(PPh 3) 2 Cl 2; and the co-catalyst or additive is CuI. P is a protecting group; T and X1 are independently selected from the group consisting of Cl, Br, I, CF 3 SO 3, CH 3 C 6 H 4 SO 3, O(t-BuC), MgCl, MgBr, MgI, Sn(Alkyl) 3, Si(Alkyl) 3, Si(OAlkyl) 3, ZnCl, ZnBr, ZnI, ZnAlkyl, B 2, B(OC(CH 3) 2 C(CH 3) 2 O), 9-borabicyclo[3.3.1]nonane, bis(1,2-dimethylpropyl)borane, catecholborane, dicyclohexylboronyl, BF 3 -, B-(N-methyliminodiacetic acid); the catalyst is Pd(PPh 3) 2 Cl 2; and the co-catalyst or additive is CuI.
A protection device for a stator of a turbine of the type comprising a series of annular sectors constrained to each other by means of connection means, each sector of said series of sectors comprises a first surface, suitable for contacting said stator which has at least one cavity for the cooling of the corresponding sector, and a second surface which faces a rotor of the turbine, wherein in a rest configuration in which the turbine is not operating, said second surface of each sector has an axial section having an eccentricity with respect to the trace of the rotation axis of said turbine, whereas in an operating configuration in which said turbine is operating under regime conditions the protection device, due to non-uniformity of thermal gradients inside the turbine, is subject both to radial and axial deformation, said second surface of each sector has an axial section which is centered with the trace of the rotation axis of said turbine, whereby said second surfaces of said series of sectors form a cylindrical surface coaxial with said rotation axis of said turbine, wherein the adimensionalized eccentricity with respect to the radius of the rotor ranges from 0.253 to 0.086.
A surgical implant, comprising: an implantable body; an adjustable filament loop coupled to the implantable body, the adjustable filament loop having at least one adjustable limb (52; 54) extending therefrom, the at least one adjustable limb being configured to adjust a size of the adjustable filament loop when tension is applied thereto; and a shuttle suture removably coupled to the implantable body, wherein the surgical implant is characterised by the shuttle suture having at least a portion thereof that is hollow, wherein the at least one adjustable limb extends from the adjustable filament loop, into the hollow portion of the shuttle suture, and exits the shuttle suture at a location that is more remote from the implantable body than a location at which the adjustable limb entered the shuttle suture. an implantable body; an adjustable filament loop coupled to the implantable body, the adjustable filament loop having at least one adjustable limb (52; 54) extending therefrom, the at least one adjustable limb being configured to adjust a size of the adjustable filament loop when tension is applied thereto; and a shuttle suture removably coupled to the implantable body, wherein the surgical implant is characterised by the shuttle suture having at least a portion thereof that is hollow, wherein the at least one adjustable limb extends from the adjustable filament loop, into the hollow portion of the shuttle suture, and exits the shuttle suture at a location that is more remote from the implantable body than a location at which the adjustable limb entered the shuttle suture.
Cartridge for a dispensing device, the cartridge having at least one inherently non-rigid, elongate film pouch, which has a chamber for receiving a composition, having a head part for interacting with the film pouch and having an inherently rigid insert, which is connected to the film pouch on a side facing the head part, characterized in that the insert has a passage, which is closed by a cover, and at least one ventilation opening, which is independent of the passage, and/or at least one ventilation slot, which is independent of the passage, and/or in that the passage of the insert has at least one ventilation notch in a region facing the central axis of the film pouch.
A multi-junction artificial photosynthesis unit comprising: an active element, the active element comprising: a first section including a first semiconductor layer and one or more metal layers adjacent to the semiconductor layer; a second section adjacent to the first section and including a second semiconductor layer and one or more metal layers adjacent to the semiconductor layer; a protective structure, the protective structure being formed as a porous aluminum oxide material, the active element being formed within the protective structure, wherein the one or more metal layers of the first section and the one or more metal layers of the second section each form a Schottky barrier junction or an ohmic junction with a surface of an adjacent semiconductor layer, and wherein the one or more metal layers of the first section include a first Schottky metal layer and a first ohmic metal layer, the first Schottky metal layer being disposed on a surface of the first semiconductor layer opposite the second section and the first ohmic metal layer being disposed on a surface of the first semiconductor layer proximate to the second section, and wherein the one or more metal layers of the second section include a second Schottky metal layer disposed on a surface of the second semiconductor layer proximate to the first section, and wherein the second Schottky metal layer of the second section is adjacent to the first ohmic metal layer of the first section. a first section including a first semiconductor layer and one or more metal layers adjacent to the semiconductor layer; a second section adjacent to the first section and including a second semiconductor layer and one or more metal layers adjacent to the semiconductor layer; a protective structure, the protective structure being formed as a porous aluminum oxide material, the active element being formed within the protective structure, wherein the one or more metal layers of the first section and the one or more metal layers of the second section each form a Schottky barrier junction or an ohmic junction with a surface of an adjacent semiconductor layer, and wherein the one or more metal layers of the first section include a first Schottky metal layer and a first ohmic metal layer, the first Schottky metal layer being disposed on a surface of the first semiconductor layer opposite the second section and the first ohmic metal layer being disposed on a surface of the first semiconductor layer proximate to the second section, and wherein the one or more metal layers of the second section include a second Schottky metal layer disposed on a surface of the second semiconductor layer proximate to the first section, and wherein the second Schottky metal layer of the second section is adjacent to the first ohmic metal layer of the first section.
Film-forming coating agent having a water content of at least 10%, which agent forms a film that can be removed readily and without residue and has high mechanical strength and adhesive properties when dried, characterised in that the coating agent is a polymer dispersion which absorbs a partial spectrum of the electromagnetic radiation incident on the coated surface and further comprises a release agent and, for the absorption of radiation in the infrared range, contains amorphous silicic acid having a brightness measured according to test specification 10/EMQ33, in line with DIN 53163, of greater than 80 and an oil absorption value measured according to test specification 10/EMQ20, in line with DIN ISO 787-5, in the range from 40 g/100 g to 60 g/100 g, in particular in the range from 45 g/100 g to 55 g/100 g, the final coating having a layer thickness from approximately 0.5 mm to approximately 2 mm.
Interlayer that is in contact with a dielectric layer in an electronic device, said interlayer comprising a polycycloolefinic polymer or a polymer composition comprising a polycycloolefinic polymer.