mhurhangee/ep-ind-claims huggingface dataset:
A glazing structure (10; 100; 110) comprising: a first substrate; a second substrate; a layer of electrically controllable optically active material positioned between the first substrate and the second substrate, the electrically controllable optically active material having a light transmissive state and a privacy state; and a plurality of light emitting elements positioned to direct light at the first substrate, through the respective first substrate, and onto the layer of electrically controllable optically active material, wherein the plurality of light emitting elements are configured to be inactive when the electronically controllable optically active material is in the light transmissive state but activate when the electronically controllable optically active material is placed in the privacy state such that light emitted by the plurality of light emitting elements reflects from the electrically controllable optically active material and masks residual visibility through the electrically controllable optically active material when in the privacy state; and characterized in that the plurality of light emitting elements are positioned such that their optical axes, which are the axes about which emitted light is centered for a particular one of the light emitting elements, intersect a planar surface of the glazing structure (10; 100; 110) at an angle ranging from 15 degrees to 75 degrees with respect to a normal axis passing through the planar face of the glazing structure (10; 100; 110) to direct light at the first substrate. a first substrate; a second substrate; a layer of electrically controllable optically active material positioned between the first substrate and the second substrate, the electrically controllable optically active material having a light transmissive state and a privacy state; and a plurality of light emitting elements positioned to direct light at the first substrate, through the respective first substrate, and onto the layer of electrically controllable optically active material, wherein the plurality of light emitting elements are configured to be inactive when the electronically controllable optically active material is in the light transmissive state but activate when the electronically controllable optically active material is placed in the privacy state such that light emitted by the plurality of light emitting elements reflects from the electrically controllable optically active material and masks residual visibility through the electrically controllable optically active material when in the privacy state; and characterized in that the plurality of light emitting elements are positioned such that their optical axes, which are the axes about which emitted light is centered for a particular one of the light emitting elements, intersect a planar surface of the glazing structure (10; 100; 110) at an angle ranging from 15 degrees to 75 degrees with respect to a normal axis passing through the planar face of the glazing structure (10; 100; 110) to direct light at the first substrate.
A kit for customizing the coating of a medical device for medical treatment for an individual patient comprising: an aqueous latex polymeric emulsion; and a medical device. an aqueous latex polymeric emulsion; and a medical device.
A print form-less printing unit in a hybrid sheet-fed offset printing press for print individualising the printed sheet to be processed, wherein at least one inkjet printing head is integrated in a printing mechanism, in a varnishing mechanism, in a feed region and/or in a delivery region of the hybrid sheet-fed offset printing press, wherein, in the hybrid sheet-fed offset printing press, printed sheets are printed with a static single-colour or multi-colour print image in the offset printing process and with a variable, individualised print image according to the inkjet printing process, characterised in that a modular printing unit is provided assigned to a counter-pressure cylinder, which modular printing unit comprises at least one inkjet printing head and the structure whereof is variable, wherein the modular printing unit is constituted in its functional structure by further modular units (9, 12, 13, 15) and wherein the modular units (9, 11, 12, 13, 15) are selected and arranged, depending on a set printing job and one or more selectable boundary conditions, in a configurable and positionable manner in the hybrid sheet-fed offset printing press at least on the basis of a set of parameters comprising a given print motif, quantity to be printed, quality requirement on the print, substrate material, coating material, drying conditions, and that the modular printing unit can be traversed and/or positioned in hybrid printing into a working position close to the surface of the counter-pressure cylinder.
A method for access control on an electronic device comprising: generating, by the electronic device, an accessor certificate (320, 325) signed by a keymaster, wherein the accessor certificate (320, 325) indicates an access privilege for an approved accessor; receiving from an application, a request subject to the access privilege indicated by the accessor certificate (320, 325); identifying the application from which the request subject to the access privilege was received; and determining, using the accessor certificate (320, 325), whether the application is an approved accessor, characterised in that the accessor certificate (320, 325) is generated by dividing a set of access privileges for the electronic device which is related to a certificate generated by the electronic device. generating, by the electronic device, an accessor certificate (320, 325) signed by a keymaster, wherein the accessor certificate (320, 325) indicates an access privilege for an approved accessor; receiving from an application, a request subject to the access privilege indicated by the accessor certificate (320, 325); identifying the application from which the request subject to the access privilege was received; and determining, using the accessor certificate (320, 325), whether the application is an approved accessor, characterised in that the accessor certificate (320, 325) is generated by dividing a set of access privileges for the electronic device which is related to a certificate generated by the electronic device.
An OLED device comprising: an anode; a cathode; a light-emitting layer located therebetween, said light-emitting layer comprising an anthracene host and a styrylamine blue light-emitting compound; and located between the said light-emitting layer and the cathode, a first electron-transporting layer that is greater than 0.5 nm and less than 5 nm thick and a second electron-transporting layer consisting of an anthracene located between the first electron-transporting layer and the cathode; wherein the first electron-transporting layer includes a compound with a less negative LUMO value than the anthracene in the second electron-transporting layer, characterized in that there is an additional layer consisting of an anthracene located between the first electron-transporting layer and the light-emitting layer. an anode; a cathode; a light-emitting layer located therebetween, said light-emitting layer comprising an anthracene host and a styrylamine blue light-emitting compound; and located between the said light-emitting layer and the cathode, a first electron-transporting layer that is greater than 0.5 nm and less than 5 nm thick and a second electron-transporting layer consisting of an anthracene located between the first electron-transporting layer and the cathode; wherein the first electron-transporting layer includes a compound with a less negative LUMO value than the anthracene in the second electron-transporting layer, characterized in that there is an additional layer consisting of an anthracene located between the first electron-transporting layer and the light-emitting layer.
A method of determining an unsafe condition of a welding power source (210, 310, 410, 810) having a welding output connector (250, 350, 450, 850) and a battery output connector (260, 360, 460, 860), the method comprising: determining, via a controller of the welding power source, a selected mode within the welding power source as being a welding mode or a battery mode; determining, via the controller of the welding power source, when at least one electric current is flowing through at least one cable connected to at least one of a welding output connector of the welding power source or a battery output connector of the welding power source by; detecting that the at least one electric current is flowing through the at least one cable connected to at least one of the welding output connector of the welding power source or the battery output connector of the welding power source via at least one of a precision resistor shunt, a hall-effect sensor, or a reed switch determining, via the controller of the welding power source, that a first unsafe condition of the welding power source exists when the selected mode is determined to be the welding mode and when the at least one electric current is determined to be flowing through the at least one cable connected to the battery output connector; shutting down, via the controller of the welding power source, a power electronics of the welding power source in response to determining that the first unsafe condition of the welding power source exists, wherein the power electronics is configured to provide welding power at the welding output connector during the welding mode. determining, via a controller of the welding power source, a selected mode within the welding power source as being a welding mode or a battery mode; determining, via the controller of the welding power source, when at least one electric current is flowing through at least one cable connected to at least one of a welding output connector of the welding power source or a battery output connector of the welding power source by; detecting that the at least one electric current is flowing through the at least one cable connected to at least one of the welding output connector of the welding power source or the battery output connector of the welding power source via at least one of a precision resistor shunt, a hall-effect sensor, or a reed switch determining, via the controller of the welding power source, that a first unsafe condition of the welding power source exists when the selected mode is determined to be the welding mode and when the at least one electric current is determined to be flowing through the at least one cable connected to the battery output connector; shutting down, via the controller of the welding power source, a power electronics of the welding power source in response to determining that the first unsafe condition of the welding power source exists, wherein the power electronics is configured to provide welding power at the welding output connector during the welding mode.
A switching device comprising: a semiconductor relay comprising a control terminal and configured to switch between supplying and interrupting power from a power supply; a mechanical relay comprising a coil, a first contact (1 a), a second contact and a third contact, the first contact being connected in parallel to the semiconductor relay to switch between supplying and interrupting power from the power supply; and a first flip-flop circuit (RSFF1) configured to control operation of the mechanical relay; and a second flip-flop circuit (RSFF2) connected to the second contact and the third contact and configured to output high or low voltage to the control terminal of the semiconductor relay, a switch configured to switch between supplying and interrupting current to the first flip-flop circuit (RSFF1), wherein the semiconductor relay turns on by high voltage being applied to the control terminal after current flows through the coil of the mechanical relay and; the first contact and the second contact are switched on, and the semiconductor relay turns off by low voltage being applied to the control terminal after current stops flowing through the coil of the mechanical relay and the third contact is switched on, and wherein the second flip-flop circuit inverts the output to the control terminal of the semiconductor relay after current has stopped flowing through the coil of the mechanical relay due to the first flip-flop circuit. a semiconductor relay comprising a control terminal and configured to switch between supplying and interrupting power from a power supply; a mechanical relay comprising a coil, a first contact (1 a), a second contact and a third contact, the first contact being connected in parallel to the semiconductor relay to switch between supplying and interrupting power from the power supply; and a first flip-flop circuit (RSFF1) configured to control operation of the mechanical relay; and a second flip-flop circuit (RSFF2) connected to the second contact and the third contact and configured to output high or low voltage to the control terminal of the semiconductor relay, a switch configured to switch between supplying and interrupting current to the first flip-flop circuit (RSFF1), wherein the semiconductor relay turns on by high voltage being applied to the control terminal after current flows through the coil of the mechanical relay and; the first contact and the second contact are switched on, and the semiconductor relay turns off by low voltage being applied to the control terminal after current stops flowing through the coil of the mechanical relay and the third contact is switched on, and wherein the second flip-flop circuit inverts the output to the control terminal of the semiconductor relay after current has stopped flowing through the coil of the mechanical relay due to the first flip-flop circuit.
A method of making a three-dimensional object, the method comprising the steps of: (a) producing an intermediate object from a dual cure polymerizable liquid by additive manufacturing, the intermediate object having a shape of the three-dimensional object in warped or distorted form; (b) optionally washing said intermediate object; then (c) contacting said intermediate object to a form, which form has a shape corresponding to said three-dimensional object, and with said intermediate object conformed to the shape of said form; then (d) further curing said intermediate object in contact with said form to produce said three-dimensional object under conditions in which said three-dimensional object retains a shape conformed to said form after separating therefrom; and then (e) separating said three-dimensional object from said form, wherein at least a portion of both said intermediate object and said three-dimensional object is in the configuration of a lattice or mesh. (a) producing an intermediate object from a dual cure polymerizable liquid by additive manufacturing, the intermediate object having a shape of the three-dimensional object in warped or distorted form; (b) optionally washing said intermediate object; then (c) contacting said intermediate object to a form, which form has a shape corresponding to said three-dimensional object, and with said intermediate object conformed to the shape of said form; then (d) further curing said intermediate object in contact with said form to produce said three-dimensional object under conditions in which said three-dimensional object retains a shape conformed to said form after separating therefrom; and then (e) separating said three-dimensional object from said form,
A vehicle door system having a first door (107a, 107b) configured to cover a top portion of an opening in the body of a vehicle and to open in an upward manner, and a second door (111a, 111b) configured to cover a bottom portion of the opening and to open in a sideward manner, the first door (107a, 107b) comprising a deployable portion configured to form at least a portion of a canopy extending away from the body of the vehicle when the first door (107a, 107b) is at least partially open, characterized in that the first door (107a, 107b) comprises a first portion (121a, 121b) and a second portion (123a, 123b), the first portion (121a, 121b) and the second portion (123a, 123b) being configured to fold with respect to each other.
A method of using a light sensor earphone to control an electronic device, characterized by comprising: the light sensor earphone detecting light intensity of an ear close side and light intensity of an ear outer side according to a received light signal; comparing the light intensity of the ear close side with the light intensity of the ear outer side, and generating an electric signal corresponding to a current mode of the electronic device according to a comparison result; and sending the electric signal to the electronic device, for the electronic device to control a corresponding function in the current mode according to the electric signal. the light sensor earphone detecting light intensity of an ear close side and light intensity of an ear outer side according to a received light signal; comparing the light intensity of the ear close side with the light intensity of the ear outer side, and generating an electric signal corresponding to a current mode of the electronic device according to a comparison result; and sending the electric signal to the electronic device, for the electronic device to control a corresponding function in the current mode according to the electric signal.
A liquid-dispensing device (10; 70), comprising a protective cap (12; 72) for a liquid-dispensing opening, the protective cap (12; 72) being provided with a residual liquid absorption pad (36; 35), made of an absorbent material, the absorption pad (36; 35) being fixed onto a support (42; 60) made of a stronger material than the absorption pad (36; 35), characterized in that this support (42; 60) is also fixed in the protective cap (12; 72) by mechanical assembly, for example by clamping, snap-fitting or gluing, so as to block the support (42; 60) relative to the protective cap (12; 72).
A high voltage miniature PMDC motor comprising: a housing; and a rotor, the rotor having a shaft, a rotor core fitted to the shaft, a commutator fitted to the shaft adjacent the rotor core, rotor windings wound about poles of the rotor core and terminated on segments of the commutator, wherein the rotor core has a diameter of 23 mm ± 3 mm and 12 poles; and wherein the commutator is a cylindrical commutator and has 24 segments, characterized in that the commutator has a diameter of 20 mm or less. a housing; and a rotor, the rotor having a shaft, a rotor core fitted to the shaft, a commutator fitted to the shaft adjacent the rotor core, rotor windings wound about poles of the rotor core and terminated on segments of the commutator, wherein the rotor core has a diameter of 23 mm ± 3 mm and 12 poles; and wherein the commutator is a cylindrical commutator and has 24 segments, characterized in that the commutator has a diameter of 20 mm or less.
A method of making a microfluidic chip device, comprising forming a shape memory polymer into a substrate layer having a transformative portion withamemory shape, wherein the transformative portion with the memory shape has a surface of the substrate layer, which as an indentation; processing the substrate layer to change the transformative portion into a temporary shape,; and laminating the substrate layer with a microfluidic layer that has a first hole that is formed on a first surface of the microfluidic layer, and a second hole that is formed on a second surface of the microfluidic layer opposite to the first surface, wherein the second hole is in spatial communication with the indentation when the transformative portion is in the memory shape, wherein the memory shape is recovered when the transformative portion is activated by an external stimulus, and a fluid driving pressure is produced within the microchannel when the memory shape is recovered, the method being characterized in that: the substrate layer is processed by hot pressing the surface of the substrate layer so that the indentation disappears from the surface of the substrate layer, the microfluidic layer further has a microchannel, the first hole is in spatial communication with the microchannel, and the second hole is in spatial communication with the microchannel. forming a shape memory polymer into a substrate layer having a transformative portion withamemory shape, wherein the transformative portion with the memory shape has a surface of the substrate layer, which as an indentation; processing the substrate layer to change the transformative portion into a temporary shape,; and laminating the substrate layer with a microfluidic layer that has a first hole that is formed on a first surface of the microfluidic layer, and a second hole that is formed on a second surface of the microfluidic layer opposite to the first surface, wherein the second hole is in spatial communication with the indentation when the transformative portion is in the memory shape, wherein the memory shape is recovered when the transformative portion is activated by an external stimulus, and a fluid driving pressure is produced within the microchannel when the memory shape is recovered, the method being characterized in that: the substrate layer is processed by hot pressing the surface of the substrate layer so that the indentation disappears from the surface of the substrate layer, the microfluidic layer further has a microchannel, the first hole is in spatial communication with the microchannel, and the second hole is in spatial communication with the microchannel. the substrate layer is processed by hot pressing the surface of the substrate layer so that the indentation disappears from the surface of the substrate layer, the microfluidic layer further has a microchannel, the first hole is in spatial communication with the microchannel, and the second hole is in spatial communication with the microchannel.
A device for performing a procedure comprising: an elongate tube comprising a proximal end and a distal end; a spherical distal link cup comprising a proximal end and a distal end, wherein the distal end comprises a first mating surface having a concave or convex shape, wherein the proximal end is configured to attach to the elongate tube distal end; a spherical rotating link comprising a second mating surface configured to rotatably interface with the first mating surface, wherein the second mating surface has a reciprocal concave shape or convex shape to the first mating surface, wherein the spherical rotating link has a complete spherical surface; a tool configured to pass through at least a portion of the elongate tube, the spherical distal link cup and the spherical rotating link; the spherical rotating link and spherical distal link cup including through holes for said one or more tools to pass therethrough; and a set of rotation cables (1532a, 1532b) that terminate on the spherical rotating link, said termination locations further determining the amount of rotation of the spherical rotating link available. an elongate tube comprising a proximal end and a distal end; a spherical distal link cup comprising a proximal end and a distal end, wherein the distal end comprises a first mating surface having a concave or convex shape, wherein the proximal end is configured to attach to the elongate tube distal end; a spherical rotating link comprising a second mating surface configured to rotatably interface with the first mating surface, wherein the second mating surface has a reciprocal concave shape or convex shape to the first mating surface, wherein the spherical rotating link has a complete spherical surface; a tool configured to pass through at least a portion of the elongate tube, the spherical distal link cup and the spherical rotating link; the spherical rotating link and spherical distal link cup including through holes for said one or more tools to pass therethrough; and a set of rotation cables (1532a, 1532b) that terminate on the spherical rotating link, said termination locations further determining the amount of rotation of the spherical rotating link available.