mhurhangee/patent-ind-claim-en huggingface dataset:
A hair removal device using, or for use in combination with, a wax-strip (W) configured to remove hair from skin, the device comprising: a user holding member comprising a housing or chassis having a wax-strip removal mechanism actuator, the housing having a bottom surface configured for engaging with the skin; a wax-strip engagement mechanism for removable engagement with the wax-strip (W); a wax-strip removal mechanism comprising a wax-strip removal acceleration arrangement; and a wax-strip pressing mechanism, characterized in that the wax-strip pressing mechanism is configured to press the wax-strip (W) to the user's skin by way of a pressing member and also configured to distance the pressing member from the skin during operation of the device, to mitigate shear and/or rubbing on the skin. a user holding member comprising a housing or chassis having a wax-strip removal mechanism actuator, the housing having a bottom surface configured for engaging with the skin; a wax-strip engagement mechanism for removable engagement with the wax-strip (W); a wax-strip removal mechanism comprising a wax-strip removal acceleration arrangement; and a wax-strip pressing mechanism, characterized in that the wax-strip pressing mechanism is configured to press the wax-strip (W) to the user's skin by way of a pressing member and also configured to distance the pressing member from the skin during operation of the device, to mitigate shear and/or rubbing on the skin.
A battery module comprising: a cell assembly comprising a plurality of secondary batteries ; a module housing comprising at least one side wall (220a-d) and configured to accommodate the cell assembly in an internal space defined by the at least one side wall; and an end frame comprising: a body frame that comprises a main wall and at least one side wall extending from an outer circumference of the main wall in a direction where the module housing is positioned; and a coupling plate , wherein the at least one side wall (220a-d) includes a top wall , a bottom wall , a left wall , and a right wall , wherein the module housing is configured as a mono frame in which the top wall , the bottom wall , the left wall , and the right wall are integrated, wherein the coupling plate comprises a body portion combined to the at least one side wall of the body frame , and a stepped portion having a step with respect to the body portion and extending from a side end portion of the body portion to be adhered to an inner surface of the module housing , and wherein a recessed portion , in which one region of an outer surface is recessed in an inward direction and a recessed region extends from one end to the other end, is formed at the body portion of the coupling plate , and an embedded fixing portion , in which a portion of the at least one side wall of the body frame is embedded in the recessed portion , is formed. a cell assembly comprising a plurality of secondary batteries ; a module housing comprising at least one side wall (220a-d) and configured to accommodate the cell assembly in an internal space defined by the at least one side wall; and an end frame comprising: a body frame that comprises a main wall and at least one side wall extending from an outer circumference of the main wall in a direction where the module housing is positioned; and a coupling plate , wherein the at least one side wall (220a-d) includes a top wall , a bottom wall , a left wall , and a right wall , wherein the module housing is configured as a mono frame in which the top wall , the bottom wall , the left wall , and the right wall are integrated, wherein the coupling plate comprises a body portion combined to the at least one side wall of the body frame , and a stepped portion having a step with respect to the body portion and extending from a side end portion of the body portion to be adhered to an inner surface of the module housing , and wherein a recessed portion , in which one region of an outer surface is recessed in an inward direction and a recessed region extends from one end to the other end, is formed at the body portion of the coupling plate , and an embedded fixing portion , in which a portion of the at least one side wall of the body frame is embedded in the recessed portion , is formed.
A squeezable tube dispenser comprising: a body comprising an internal cavity for containing a substance, a sealed bottom end , and an open top end ; a nozzle coupled to the body adjacent to the open top end of the body, the nozzle defining a passageway into the internal cavity; and a closure component comprising: a cover member having a top portion and a sidewall portion , an inner surface of the top portion and an inner surface of the sidewall portion defining a cover cavity ; and a cap member coupled to the inner surface of the top portion of the cover member and protruding downwardly therefrom into the cover cavity , the cap member comprising an inner surface that defines a cap cavity ; wherein the cap member of the closure component is detachably coupled to the nozzle via a friction fit with the nozzle nesting within the cap cavity of the cap member; and wherein the body and the cover member of the closure component are formed predominantly from a fibrous material and the nozzle and the cap member of the closure component are formed from a plastic material, and wherein the squeezable tube dispenser comprises no more than 15% by weight of plastic. a body comprising an internal cavity for containing a substance, a sealed bottom end , and an open top end ; a nozzle coupled to the body adjacent to the open top end of the body, the nozzle defining a passageway into the internal cavity; and a closure component comprising: a cover member having a top portion and a sidewall portion , an inner surface of the top portion and an inner surface of the sidewall portion defining a cover cavity ; and a cap member coupled to the inner surface of the top portion of the cover member and protruding downwardly therefrom into the cover cavity , the cap member comprising an inner surface that defines a cap cavity ; a cover member having a top portion and a sidewall portion , an inner surface of the top portion and an inner surface of the sidewall portion defining a cover cavity ; and a cap member coupled to the inner surface of the top portion of the cover member and protruding downwardly therefrom into the cover cavity , the cap member comprising an inner surface that defines a cap cavity ; wherein the cap member of the closure component is detachably coupled to the nozzle via a friction fit with the nozzle nesting within the cap cavity of the cap member; and wherein the body and the cover member of the closure component are formed predominantly from a fibrous material and the nozzle and the cap member of the closure component are formed from a plastic material, and wherein the squeezable tube dispenser comprises no more than 15% by weight of plastic.
A monitor comprising: a display device ; a first Universal Serial Bus, USB, upstream port ; and a second USB upstream port ; characterized in that in response to a new host being connected to one of the USB upstream ports when the other of the USB upstream ports has active status by already supporting an active host , the monitor displaying on the display device a prompt to a user to switch active status to the USB upstream port connected to the new host . a display device ; a first Universal Serial Bus, USB, upstream port ; and a second USB upstream port ; characterized in that in response to a new host being connected to one of the USB upstream ports when the other of the USB upstream ports has active status by already supporting an active host , the monitor displaying on the display device a prompt to a user to switch active status to the USB upstream port connected to the new host .
A nickel hydrogen secondary battery , comprising: a container ; and an electrode group accommodated together with an alkali electrolyte solution in the container , characterized in that : the electrode group has a positive electrode and a negative electrode stacked through a separator ; the positive electrode comprises two or more positive electrode active substances having different compositions; and the positive electrode active substances each comprise nickel hydroxide as a main component, wherein the content of nickel hydroxide in each positive electrode active substance exceeds 50% by mass, and mutually differ in an amount of magnesium by mass solid-dissolved, wherein the positive electrode active substances comprise a first positive electrode active substance and a second positive electrode active substance; and a relation of A > B ≥ 0 is satisfied, where A represents an amount of magnesium by mass solid-dissolved in the first positive electrode active substance, and B represents an amount of magnesium by mass solid-dissolved in the second positive electrode active substance, and where A is 2.0% by mass or larger and 5.0% by mass or smaller, characterized in that : the first positive electrode active substance is contained in a larger amount by mass than the second positive electrode active substance. the electrode group has a positive electrode and a negative electrode stacked through a separator ; the positive electrode comprises two or more positive electrode active substances having different compositions; and the positive electrode active substances each comprise nickel hydroxide as a main component, wherein the content of nickel hydroxide in each positive electrode active substance exceeds 50% by mass, and mutually differ in an amount of magnesium by mass solid-dissolved, wherein the positive electrode active substances comprise a first positive electrode active substance and a second positive electrode active substance; and a relation of A > B ≥ 0 is satisfied, where A represents an amount of magnesium by mass solid-dissolved in the first positive electrode active substance, and B represents an amount of magnesium by mass solid-dissolved in the second positive electrode active substance, and where A is 2.0% by mass or larger and 5.0% by mass or smaller,
A method of delivering content in one or more packets over a network , the method comprising: receiving, from a client , a content request packet comprising a request for content directed to a first IPv6 address, the first IPv6 address identifying the content; mapping the first IPv6 address to a second IPv6 address, wherein the second IPv6 address identifies a specific instance of the content at a specific physical location, and wherein the second IPv6 address is selected from a family of IPv6 addresses which each map to an instance of the content at a physical location; routing the content request packet to the specific instance of the content at the specific physical location by directing the content request packet to the second IPv6 address; receiving, by the client, the content requested in the content request packet from the physical location associated with the second IPv6 address. receiving, from a client , a content request packet comprising a request for content directed to a first IPv6 address, the first IPv6 address identifying the content; mapping the first IPv6 address to a second IPv6 address, wherein the second IPv6 address identifies a specific instance of the content at a specific physical location, and wherein the second IPv6 address is selected from a family of IPv6 addresses which each map to an instance of the content at a physical location; routing the content request packet to the specific instance of the content at the specific physical location by directing the content request packet to the second IPv6 address; receiving, by the client, the content requested in the content request packet from the physical location associated with the second IPv6 address.
A method for making a compositional kit to form a curable coating composition, the method comprising: a. mixing a first composition comprising from 2% to 55% of a filler, by dry weight of the compositional kit, 5% to 20% of a cross-linking agent selected from one or more of magnesium hydroxide, magnesium oxide, and zinc oxide, by dry weight of the compositional kit, and 6% to 42% of an emissivity agent selected from one or more of gallium oxide, cerium oxide, zirconium oxide, silicon hexaboride, carbon tetraboride, silicon tetraboride, silicon carbide, molybdenum disilicide, tungsten disilicide, zirconium diboride, cupric chromite, manganese oxide, chromium oxide, iron oxide, boron carbide, boron silicide, copper chromium oxide, titanium dioxide, aluminum nitride, and boron nitride, by dry weight of the compositional kit; and b. mixing a second composition comprising a metal silicate binder, wherein the metal of the metal silicate binder is one of an alkali earth metal or an alkaline earth metal; and wherein the first composition and the second composition are separated; and wherein i. the filler comprises 1 wt.% to 18 wt.% talc, 1 wt.% to 15 wt.% calcined kaolin, 0 wt.% to 10 wt.% aluminum oxide, and 0 wt.% to 12 wt.% quartz; ii. the crosslinking agent comprises 5 wt.% to 20 wt.% of one or more of magnesium hydroxide and magnesium oxide; iii. the emissivity agent comprises 1 wt.% to 12 wt.% of one or more of boron oxide, silicon carbide, and cerium oxide; and 5 wt.% to 30 wt.% titanium dioxide; and iv. the metal silicate binder comprises 20 wt.% to 65 wt.% potassium silicate. a. mixing a first composition comprising from 2% to 55% of a filler, by dry weight of the compositional kit, 5% to 20% of a cross-linking agent selected from one or more of magnesium hydroxide, magnesium oxide, and zinc oxide, by dry weight of the compositional kit, and 6% to 42% of an emissivity agent selected from one or more of gallium oxide, cerium oxide, zirconium oxide, silicon hexaboride, carbon tetraboride, silicon tetraboride, silicon carbide, molybdenum disilicide, tungsten disilicide, zirconium diboride, cupric chromite, manganese oxide, chromium oxide, iron oxide, boron carbide, boron silicide, copper chromium oxide, titanium dioxide, aluminum nitride, and boron nitride, by dry weight of the compositional kit; and b. mixing a second composition comprising a metal silicate binder, wherein the metal of the metal silicate binder is one of an alkali earth metal or an alkaline earth metal; and i. the filler comprises 1 wt.% to 18 wt.% talc, 1 wt.% to 15 wt.% calcined kaolin, 0 wt.% to 10 wt.% aluminum oxide, and 0 wt.% to 12 wt.% quartz; ii. the crosslinking agent comprises 5 wt.% to 20 wt.% of one or more of magnesium hydroxide and magnesium oxide; iii. the emissivity agent comprises 1 wt.% to 12 wt.% of one or more of boron oxide, silicon carbide, and cerium oxide; and 5 wt.% to 30 wt.% titanium dioxide; and iv. the metal silicate binder comprises 20 wt.% to 65 wt.% potassium silicate.
A porous base material containing: a carbon fiber (A) having an average fiber diameter of 10 to 20 μm, an average fiber length of 2 to 30 mm, a tensile modulus of elasticity of 200 to 600 GPa, and a tensile strength of 3,000 to 7,000 MPa, wherein the carbon fiber (A) is a PAN-based carbon fiber; and a carbon binder (D) containing resin carbide, wherein the resin carbide is formed by subjecting a resin to a carbonization treatment, wherein the resin is a thermosetting resin including a phenolic resin, wherein the carbon fiber (A) is bound with the carbon binder (D), wherein, with respect to 100 mass % of the porous base material, the content of the carbon fiber (A) is 40 to 80 mass % and the content of the carbon binder (D) is 20 to 60 mass %. a carbon fiber (A) having an average fiber diameter of 10 to 20 μm, an average fiber length of 2 to 30 mm, a tensile modulus of elasticity of 200 to 600 GPa, and a tensile strength of 3,000 to 7,000 MPa, wherein the carbon fiber (A) is a PAN-based carbon fiber; and a carbon binder (D) containing resin carbide, wherein the resin carbide is formed by subjecting a resin to a carbonization treatment, wherein the resin is a thermosetting resin including a phenolic resin, wherein the carbon fiber (A) is bound with the carbon binder (D), wherein, with respect to 100 mass % of the porous base material, the content of the carbon fiber (A) is 40 to 80 mass % and the content of the carbon binder (D) is 20 to 60 mass %.
An image decoding method performed by a decoding apparatus, the method comprising: obtaining (S1100) multiple transform selection, MTS, index and residual information from a bitstream; deriving (S1110) transform coefficients for a current block based on the residual information; and generating (S1120) residual samples of the current block based on the MTS index and the transform coefficients, wherein the MTS index represents a transform kernel set to be applied to the current block among transform kernel set candidates, wherein bins of a bin string of the MTS index are derived based on context coding, the context coding being performed using a context model represented by a context index for each of the bins for the MTS index, wherein the context index for each of the bins for the MTS index is derived as a sum of a value of context index increment for each of the bins for the MTS index and a value of context index offset for each of the bins for the MTS index, wherein the bins for the MTS index include first, second, third, and fourth bins, characterized in that the value of the context index increment for the first bin is fixed to 0, the value of the context index increment for the second bin is fixed to 1, the value of the context index increment for the third bin is fixed to 2, and the value of the context index increment for the fourth bin is fixed to 3. obtaining (S1100) multiple transform selection, MTS, index and residual information from a bitstream; deriving (S1110) transform coefficients for a current block based on the residual information; and generating (S1120) residual samples of the current block based on the MTS index and the transform coefficients, wherein the MTS index represents a transform kernel set to be applied to the current block among transform kernel set candidates, wherein bins of a bin string of the MTS index are derived based on context coding, the context coding being performed using a context model represented by a context index for each of the bins for the MTS index, wherein the context index for each of the bins for the MTS index is derived as a sum of a value of context index increment for each of the bins for the MTS index and a value of context index offset for each of the bins for the MTS index, wherein the bins for the MTS index include first, second, third, and fourth bins, characterized in that the value of the context index increment for the first bin is fixed to 0, the value of the context index increment for the second bin is fixed to 1, the value of the context index increment for the third bin is fixed to 2, and the value of the context index increment for the fourth bin is fixed to 3.
A hair feeding device configured to perform a feeding operation for pulling out flocking hairs (M) one by one from a bundle (B) of flocking hairs (M), the device comprising: a head for capturing the flocking hairs (M); a conveyance mechanism configured to convey the head ; and a control device that peforms an operation control of the feeding operation, characterized in that the head is configured for capturing hair ends of the flocking hairs (M) and includes a nozzle that suctions the hair ends of the flocking hairs (M), a gripping member that grips the flocking hair (M) suctioned by the nozzle , and an actuator that gives a gripping pressure to the gripping member . a head for capturing the flocking hairs (M); a conveyance mechanism configured to convey the head ; and a control device that peforms an operation control of the feeding operation, characterized in that the head is configured for capturing hair ends of the flocking hairs (M) and includes a nozzle that suctions the hair ends of the flocking hairs (M), a gripping member that grips the flocking hair (M) suctioned by the nozzle , and an actuator that gives a gripping pressure to the gripping member . a nozzle that suctions the hair ends of the flocking hairs (M), a gripping member that grips the flocking hair (M) suctioned by the nozzle , and an actuator that gives a gripping pressure to the gripping member .
A catheter system for treating a treatment site within or adjacent to a vessel wall or heart valve within a body of a patient, the catheter system comprising: an energy source that generates energy; a balloon that is positionable substantially adjacent to the treatment site , the balloon having a balloon wall that defines a balloon interior , the balloon interior being configured to receive a balloon fluid ; an energy guide that is configured to receive energy from the energy source and guide the energy into the balloon interior ; and an electrical analyzer assembly that is configured to monitor a condition of the balloon during use of the catheter system , wherein the electrical analyzer assembly includes (i) a first electrode , (ii) a second electrode positioned in a manner to, in use, be in fluid communication with blood of the patient , and (iii) an impedance detector , the impedance detector being electrically coupled to the first electrode and the second electrode , the impedance detector being configured to detect an impedance between the first electrode and the second electrode . an energy source that generates energy; a balloon that is positionable substantially adjacent to the treatment site , the balloon having a balloon wall that defines a balloon interior , the balloon interior being configured to receive a balloon fluid ; an energy guide that is configured to receive energy from the energy source and guide the energy into the balloon interior ; and an electrical analyzer assembly that is configured to monitor a condition of the balloon during use of the catheter system , wherein the electrical analyzer assembly includes (i) a first electrode , (ii) a second electrode positioned in a manner to, in use, be in fluid communication with blood of the patient , and (iii) an impedance detector , the impedance detector being electrically coupled to the first electrode and the second electrode , the impedance detector being configured to detect an impedance between the first electrode and the second electrode .
A lighting unit comprising: a torsion box having a plurality of sidewalls and a grid of internal walls , each of said internal walls extending between a pair of said sidewalls , said internal walls defining a plurality of compartments within the lighting unit ; at least one solid state lighting element within at least some of said compartments ; and a back panel arranged at a first opening of the torsion box delimited by the sidewalls such that the back panel covers said compartments , wherein a second opening of the torsion box delimited by said sidewalls opposing the first opening defines a light exit window of the lighting unit , characterised in that at least some internal walls have a recessed central portion having a height (H') of at most half the height (H) of said sidewalls . a torsion box having a plurality of sidewalls and a grid of internal walls , each of said internal walls extending between a pair of said sidewalls , said internal walls defining a plurality of compartments within the lighting unit ; at least one solid state lighting element within at least some of said compartments ; and a back panel arranged at a first opening of the torsion box delimited by the sidewalls such that the back panel covers said compartments , wherein a second opening of the torsion box delimited by said sidewalls opposing the first opening defines a light exit window of the lighting unit , characterised in that at least some internal walls have a recessed central portion having a height (H') of at most half the height (H) of said sidewalls .