mhurhangee/ep-ind-claims huggingface dataset:
An electronic system component comprising: a chassis configured to house components of the electronic system component, the chassis including an attachment aperture configured to receive a user interface on an external surface thereof and one or more mounting features; a user interface mounting module including a main body having a rear face, a front face, and a plurality of sidewalls, a recess configured to receive and mount a user interface in the user interface mounting module, and an indexing detent attached to a spring affixed to the rear face and configured to engage the one or more mounting features on the chassis; wherein the main body is configured to be secured to the chassis in one of two positions including a first position in which the user interface is vertically oriented and the indexing detent engages the one or more mounting features and a second position in which the user interface is horizontally oriented. a chassis configured to house components of the electronic system component, the chassis including an attachment aperture configured to receive a user interface on an external surface thereof and one or more mounting features; a user interface mounting module including a main body having a rear face, a front face, and a plurality of sidewalls, a recess configured to receive and mount a user interface in the user interface mounting module, and an indexing detent attached to a spring affixed to the rear face and configured to engage the one or more mounting features on the chassis; wherein the main body is configured to be secured to the chassis in one of two positions including a first position in which the user interface is vertically oriented and the indexing detent engages the one or more mounting features and a second position in which the user interface is horizontally oriented.
A color-changing composition for skin care that provides a changing color effect that indicates delivery of one or more active substances onto the skin, the composition comprising (i) one or more active substances for skin care selected from moistening, healing/regenerating/revitalizing, depigmentation/whitening/lightening, antioxidant/radical scavenger, cooling/calming, warming, anesthetic, sunscreen/sunblock, antibiotics, anti-cellulite, keratolytic, antifungal, antipsoriatic, anti-inflammatory, antibacterial, astringent, antiseptic, repellent, anti-spider vein, anti-rosacea/anti-couperosis, anti-acne agents, fragrances/scents or agents for treatment of fever blisters; and (ii) one or more microencapsulated colorants; wherein said one or more microencapsulated colorants are encapsulated individually or as a blend of colorants in the core of double- or multi-layer microcapsules, said core containing the one or more colorants being surrounded by two or more shells of the same or different wall-forming polymer, and said composition immediately and irreversibly changes its color upon application on the skin. (i) one or more active substances for skin care selected from moistening, healing/regenerating/revitalizing, depigmentation/whitening/lightening, antioxidant/radical scavenger, cooling/calming, warming, anesthetic, sunscreen/sunblock, antibiotics, anti-cellulite, keratolytic, antifungal, antipsoriatic, anti-inflammatory, antibacterial, astringent, antiseptic, repellent, anti-spider vein, anti-rosacea/anti-couperosis, anti-acne agents, fragrances/scents or agents for treatment of fever blisters; and (ii) one or more microencapsulated colorants;
Conveying method for a conveyance object, the conveyance object being conveyed through a conveyance path including a plurality of conveyance sections provided along a conveying direction of the conveyance object, wherein at least two of the conveyance sections are constant-speed conveyance sections (21, 25, 29) each of which conveys the conveyance object with a predetermined constant conveying speed, the constant-speed conveyance sections (21, 25, 29) including an upstream constant-speed conveyance section disposed in the upstream side and a downstream constant-speed conveyance section disposed in the downstream side in the conveying direction with different conveying speeds, the conveyance path includes an acceleration/deceleration section (23, 27) between the upstream constant-speed conveyance section and the downstream constant-speed conveyance section, the acceleration/deceleration section (23, 27) including a plurality of variable-speed conveyance sections (23a, 23b, 23c, 27a, 27b, 27c) capable of changing a conveying speed of the conveyance object, and the method in each of the variable-speed conveyance sections (23a, 23b, 23c, 27a, 27b, 27c) included in the acceleration/deceleration section (23, 27) is defined by continuously accelerating or decelerating a conveying speed of the variable-speed conveyance section (23a, 23b, 23c, 27a, 27b, 27c) during the conveyance of the conveyance object so as to accelerate or decelerate the conveying speed of the conveyance object while the conveyance object is passing through the entire acceleration/deceleration section (23, 27), from the conveying speed of the upstream constant-speed conveyance section to the conveying speed of the downstream constant-speed conveyance section; when the conveyance object is transferred from the upstream constant-speed conveyance section to the variable-speed conveyance section, controlling the conveying speed in the variable-speed conveyance section to be identical to the upstream constant-speed section, and controlling the conveyance acceleration/deceleration in the variable-speed conveyance section to be 0; and when the conveyance object is transferred from the variable-speed conveyance section to the downstream constant-speed conveyance section, controlling the conveying speed in the variable-speed conveyance section to be identical to the downstream constant-speed section, and controlling the conveyance acceleration/deceleration in the variable-speed conveyance section to be 0, characterized by when the conveyance object is transferred between the variable-speed conveyance sections, controlling the conveying speed and the conveyance acceleration/deceleration to be identical in both of the variable-speed conveyance sections.
A method for making a super-hard construction comprising: a first structure joined to a second structure, the first structure comprising first material having a first coefficient of thermal expansion and a first Young's modulus, and the second structure comprising second material having a second CTE and a second Young's modulus; the first CTE and the second CTE being substantially different from each other and the first Young's modulus and the second Young's modulus being substantially different from each other; at least one of the first or second materials comprising super-hard material with a Vickers hardness of at least 25 gigapascals; the method including: forming an assembly comprising the first material, the second material and a binder material arranged to be capable of bonding the first and second materials together, the binder material comprising metal; subjecting the assembly to a sufficiently high temperature for the binder material to be in the liquid state and to a first pressure at which the super-hard material is thermodynamically stable; reducing the pressure to a second pressure at which the super-hard material is thermodynamically stable, the temperature being maintained sufficiently high to maintain the binder material in the liquid state; reducing the temperature to solidify the binder material; and reducing the pressure and the temperature to an ambient condition to provide the super-hard construction.
An MRI phantom (100, 80) for calibrated anisotropic imaging comprising a plurality of textile based axon simulations (22, 42), filled with water or other desired fluids, wherein each textile based axon simulation (22, 42) has an inner diameter of less than 2 microns and wherein the textile based axon simulations (22, 42) are integral as they share common textile based axon simulation walls, and wherein the textile based axon simulations are formed as textile based axon simulation fibers manufactured using a bi or tri-component textile/polymer manufacturing process.
Method of producing a vacuum insulated glazing unit comprising: - providing a first and second substantially parallel panes (1,2), a plurality of pillars and a peripheral seal provided between the first and second panes (1,2), where in the first pane there is provided an evacuation hole for evacuating a void through the evacuation hole to a pressure less than atmospheric pressure; - on a glass pane face, covering the evacuation hole with an evacuation head comprising a heating element, the evacuation head adapted to have a substantially hermetic contact to the glass pane face; - arranging the vacuum insulated glazing unit and evacuation head in an oven, the oven configured for heating and cooling according to a predetermined profile of oven temperatures; - heating and cooling the oven according to the predetermined profile of oven temperatures and compensating for a difference in temperature between the predetermined profile of oven temperatures and a temperature under the evacuation head by activating the heating element for a time necessary to raise the temperature under the evacuation head to the predetermined profile of oven temperatures; and - after completion of the heating and cooling according to the predetermined profile of oven temperatures, evacuating the void through the evacuation head, and sealing off an evacuation tube tip of an evacuation tube comprised in the evacuation hole. - providing a first and second substantially parallel panes (1,2), a plurality of pillars and a peripheral seal provided between the first and second panes (1,2), where in the first pane there is provided an evacuation hole for evacuating a void through the evacuation hole to a pressure less than atmospheric pressure; - on a glass pane face, covering the evacuation hole with an evacuation head comprising a heating element, the evacuation head adapted to have a substantially hermetic contact to the glass pane face; - arranging the vacuum insulated glazing unit and evacuation head in an oven, the oven configured for heating and cooling according to a predetermined profile of oven temperatures; - heating and cooling the oven according to the predetermined profile of oven temperatures and compensating for a difference in temperature between the predetermined profile of oven temperatures and a temperature under the evacuation head by activating the heating element for a time necessary to raise the temperature under the evacuation head to the predetermined profile of oven temperatures; and - after completion of the heating and cooling according to the predetermined profile of oven temperatures, evacuating the void through the evacuation head, and sealing off an evacuation tube tip of an evacuation tube comprised in the evacuation hole.
A backflush needle for use used in an ophthalmic operation, wherein the backflush needle is configured to be passed through a cannula attached to an eyeball, wherein the backflush needle comprises: a tubular needle main body configured to pass through the cannula, a tubular soft member formed from silicone resin and connected to a front end of the needle main body, and a rod-shaped core member configured to pass through the tubular hollow cavities of the needle main body and of the soft member, respectively, wherein the core member is axially movable, allowing protrusion of a front end of the core member from the soft member and retraction of the same until a detached position from the needle main body. a tubular needle main body configured to pass through the cannula, a tubular soft member formed from silicone resin and connected to a front end of the needle main body, and a rod-shaped core member configured to pass through the tubular hollow cavities of the needle main body and of the soft member, respectively, wherein the core member is axially movable, allowing protrusion of a front end of the core member from the soft member and retraction of the same until a detached position from the needle main body.
A method of producing a calcium phosphate-based ceramics raw material-containing slurry frozen body, comprising step: a step of preparing a slurry by dispersing a calcium phosphate-based ceramics raw material in a medium, and step: a step of filling the slurry in a container, and inserting the container in a given direction and at an insert speed into a cooling medium having a temperature not higher than the freezing point of the slurry such that the slurry freezes unidirectionally toward the upper direction from a part where the container is dipped in the cooling medium at a crystal growth speed, and wherein the insert speed of the container is controlled in step such that one of the crystal growth speed due to freezing of the medium in the slurry and the insert speed of the container into the cooling medium is within the range of 50-150% of the other speed. step: a step of preparing a slurry by dispersing a calcium phosphate-based ceramics raw material in a medium, and step: a step of filling the slurry in a container, and inserting the container in a given direction and at an insert speed into a cooling medium having a temperature not higher than the freezing point of the slurry such that the slurry freezes unidirectionally toward the upper direction from a part where the container is dipped in the cooling medium at a crystal growth speed,
A transistor comprising: a substrate; a pair of spacers on the substrate; a U-shaped high-k gate dielectric layer on a surface of the substrate and along sidewalls of the pair of spacers; a metal gate electrode on the high-k gate dielectric layer and between the pair of spacers; an insulating cap layer between the pair of spacers and on the metal gate electrode, the insulating cap layer in contact with the high-k gate dielectric layer; a pair of diffusion regions adjacent to the pair of spacers, the diffusion regions within the substrate; a first interlayer dielectric layer on said pair of diffusion regions, and adjacent to one of said pair of spacers, said first interlayer dielectric layer having a top surface planar with a top surface of said insulating cap layer and planar with a top surface of said pair of spacers; a second interlayer dielectric layer on said top surface of said first interlayer dielectric layer and on a first portion of said insulating cap layer; and a conductive contact in contact with one of said pair of diffusion regions, said conductive contact adjacent to and on the other one of said pair of spacers and adjacent to said second interlayer dielectric layer, wherein a portion of said conductive contact is on a second portion of said insulating cap layer on the metal gate electrode. a substrate; a pair of spacers on the substrate; a U-shaped high-k gate dielectric layer on a surface of the substrate and along sidewalls of the pair of spacers; a metal gate electrode on the high-k gate dielectric layer and between the pair of spacers; an insulating cap layer between the pair of spacers and on the metal gate electrode, the insulating cap layer in contact with the high-k gate dielectric layer; a pair of diffusion regions adjacent to the pair of spacers, the diffusion regions within the substrate; a first interlayer dielectric layer on said pair of diffusion regions, and adjacent to one of said pair of spacers, said first interlayer dielectric layer having a top surface planar with a top surface of said insulating cap layer and planar with a top surface of said pair of spacers; a second interlayer dielectric layer on said top surface of said first interlayer dielectric layer and on a first portion of said insulating cap layer; and a conductive contact in contact with one of said pair of diffusion regions, said conductive contact adjacent to and on the other one of said pair of spacers and adjacent to said second interlayer dielectric layer, wherein a portion of said conductive contact is on a second portion of said insulating cap layer on the metal gate electrode.
Labelling unit for a thermoforming system, having a storage unit for at least one label roll which has a multiplicity of labels, a first cutting unit for severing in each case one label from the at least one label roll, a transfer unit for transferring in each case one label which has been severed from the at least one label roll to a moulding compartment (102, 103) of a mould for producing a container, wherein the mould has a plurality of moulding compartments (102, 103), wherein in each case all containers are producible in the moulding compartments (102, 103) by the mould in one production cycle, wherein the first cutting unit is assigned to a plurality of moulding compartments (102, 103) of the mould, wherein a label infeed unit which infeeds the labels which have been in each case severed by the first cutting unit from the at least one label roll to the transfer units of the moulding compartments (102, 103) is provided, and wherein the label infeed unit is configured as an infinitely revolving conveyor belt, characterized in that the lead of the conveyor belt is oriented so as to be perpendicular to the horizontal and has at least one dog for each label, in that the conveyor belt has a smaller height (h) than the label, and in that the label by way of an edge in the region of the conveyor belt bears on a base plate.
A method for controlling operations of a Handheld Scanning and Deactivation ("HSD") device, the method comprising: determining whether a human is located within a defined distance range of said HSD device; preventing first operations from being performed by said HSD device which cause a magnetic field to be generated, if it is determined that said human is located within said defined distance range of said HSD device; and initiating said first operations if it is determined that said human is not located within said defined distance range of said HSD device. determining whether a human is located within a defined distance range of said HSD device; preventing first operations from being performed by said HSD device which cause a magnetic field to be generated, if it is determined that said human is located within said defined distance range of said HSD device; and initiating said first operations if it is determined that said human is not located within said defined distance range of said HSD device.
Sieve star, in particular for a screening machine, wherein the sieve star is configured essentially disc-like and can be arranged on a shaft, wherein based on the center point of the sieve star at least two outward extending star fingers (1....12) are provided, wherein the length (l 1.... 12) of the star fingers (1,...12) is different, characterized in that two opposite star fingers (1,....12) each have identical length (l).
A method comprising: pressing a layer of material onto a surface of a print head, the surface defining fluid nozzle openings; and causing adherence of portions of the layer of material onto the surface and overlapping edges of the surface at the openings and with a uniform thickness on the surface, characterised in that pressing the material against the surface includes pressing a transfer film (220, 320) which has the layer of material coated thereon, onto the surface and in that causing adherence of the portions of the layer onto the surface includes removing the transfer film (220, 320) and another portion of the layer of material remaining adhered to the transfer film (220, 320), leaving behind the portions of the layer at the uniform thickness adhered onto the surface such that the uniform thickness is less than a total thickness of the layer pressed onto the surface. pressing a layer of material onto a surface of a print head, the surface defining fluid nozzle openings; and causing adherence of portions of the layer of material onto the surface and overlapping edges of the surface at the openings and with a uniform thickness on the surface, characterised in that pressing the material against the surface includes pressing a transfer film (220, 320) which has the layer of material coated thereon, onto the surface and in that causing adherence of the portions of the layer onto the surface includes removing the transfer film (220, 320) and another portion of the layer of material remaining adhered to the transfer film (220, 320), leaving behind the portions of the layer at the uniform thickness adhered onto the surface such that the uniform thickness is less than a total thickness of the layer pressed onto the surface.
A wearable electronic device comprising: a composite band forming a loop with two or more rigid segments and a flexible segment coupled between adjacent rigid segments; a touch-sensor display arranged in a first of the rigid segments; a skin sensor (58, 62) arranged in a second of the rigid segments; a course of electrical conductors running between the first and second rigid segments (16A, 16B), through the flexible segment; and the wearable electronic device further comprising an energy-storage cell arranged outside of the first and second rigid segments (16A, 16B), wherein the composite band includes a third rigid segment in which the energy-storage cell is arranged characterised in that the composite band further includes a fourth rigid segment in which another energy-storage cell is arranged. a composite band forming a loop with two or more rigid segments and a flexible segment coupled between adjacent rigid segments; a touch-sensor display arranged in a first of the rigid segments; a skin sensor (58, 62) arranged in a second of the rigid segments; a course of electrical conductors running between the first and second rigid segments (16A, 16B), through the flexible segment; and the wearable electronic device further comprising an energy-storage cell arranged outside of the first and second rigid segments (16A, 16B), wherein the composite band includes a third rigid segment in which the energy-storage cell is arranged characterised in that the composite band further includes a fourth rigid segment in which another energy-storage cell is arranged.
An inspection substrate for inspecting a component of an apparatus for processing production substrates, the inspection substrate comprising: a body having dimensions similar to a production substrate so that the inspection substrate is compatible with the apparatus; an illumination device embedded in the body; a sensor embedded in the body, the sensor configured to generate inspection information relating to a parameter of a component of the apparatus proximate to the inspection substrate; and a storage device embedded in the body, the storage device configured to store the inspection information, wherein the sensor comprises an imaging device and the inspection information comprises image data. a body having dimensions similar to a production substrate so that the inspection substrate is compatible with the apparatus; an illumination device embedded in the body; a sensor embedded in the body, the sensor configured to generate inspection information relating to a parameter of a component of the apparatus proximate to the inspection substrate; and a storage device embedded in the body, the storage device configured to store the inspection information, wherein the sensor comprises an imaging device and the inspection information comprises image data.