mhurhangee/patent-ind-claim-en huggingface dataset:
Heating apparatus comprising: a housing having a flame simulation compartment and a viewing window for viewing said compartment and flames simulated therein; a flame simulator for simulating flames in said flame simulation compartment; an electrical heater unit adjacent the flame simulation compartment, the heater unit including: a heater , an air inlet , an air inlet channel connecting the air inlet to the heater, an air outlet , an air outlet channel connecting the heater to the air outlet, and a fan for drawing air into the air inlet, to then flow through the air inlet channel past the heater, through the air outlet channel and then through the air outlet, wherein the cross-sectional area of the air outlet channel in the planes perpendicular to the direction of the flow of air therethrough increases with increased distance from the heater, and characterised in that said cross-section of the air outlet channel transitions from having a cross-section matching the outlet from the electric heater to an air outlet channel slot having a greater longitudinal or horizontal dimension and smaller vertical dimension. a housing having a flame simulation compartment and a viewing window for viewing said compartment and flames simulated therein; a flame simulator for simulating flames in said flame simulation compartment; an electrical heater unit adjacent the flame simulation compartment, the heater unit including: a heater , an air inlet , an air inlet channel connecting the air inlet to the heater, an air outlet , an air outlet channel connecting the heater to the air outlet, and a fan for drawing air into the air inlet, to then flow through the air inlet channel past the heater, through the air outlet channel and then through the air outlet, wherein the cross-sectional area of the air outlet channel in the planes perpendicular to the direction of the flow of air therethrough increases with increased distance from the heater, and characterised in that said cross-section of the air outlet channel transitions from having a cross-section matching the outlet from the electric heater to an air outlet channel slot having a greater longitudinal or horizontal dimension and smaller vertical dimension. a heater , an air inlet , an air inlet channel connecting the air inlet to the heater, an air outlet , an air outlet channel connecting the heater to the air outlet, and a fan for drawing air into the air inlet, to then flow through the air inlet channel past the heater, through the air outlet channel and then through the air outlet, wherein the cross-sectional area of the air outlet channel in the planes perpendicular to the direction of the flow of air therethrough increases with increased distance from the heater, and characterised in that said cross-section of the air outlet channel transitions from having a cross-section matching the outlet from the electric heater to an air outlet channel slot having a greater longitudinal or horizontal dimension and smaller vertical dimension.
A portable terminal for displaying a camera view area, the portable terminal comprising: a display unit comprising a transparent display panel ; a camera unit comprising a first camera included in a front surface of the portable terminal for photographing a first image including a shape of a user and a rotatable second camera included in a rear surface of the portable terminal for photographing a second image; a controller configured to receive the first image when a request for taking a picture is made, identify a position of the shape of the user within the first image, determine whether the identified position of the shape of the user is included in a pre-designated area, wherein the pre-designated area is an area within a predetermined scope from a center of the first image, in response to the identified position of the shape of the user being not included in the pre-designated area, calculate a view direction and a view angle of the user by using the shape of the user , wherein the view angle corresponds to an angle between the view direction of the user and a direction orthogonal to the transparent display panel, and rotate the rotatable second camera based on the calculated view direction and the calculated view angle such that the rotatable second camera has a photography direction corresponding to the view direction of the user. a display unit comprising a transparent display panel ; a camera unit comprising a first camera included in a front surface of the portable terminal for photographing a first image including a shape of a user and a rotatable second camera included in a rear surface of the portable terminal for photographing a second image; a controller configured to receive the first image when a request for taking a picture is made, identify a position of the shape of the user within the first image, determine whether the identified position of the shape of the user is included in a pre-designated area, wherein the pre-designated area is an area within a predetermined scope from a center of the first image, in response to the identified position of the shape of the user being not included in the pre-designated area, calculate a view direction and a view angle of the user by using the shape of the user , wherein the view angle corresponds to an angle between the view direction of the user and a direction orthogonal to the transparent display panel, and rotate the rotatable second camera based on the calculated view direction and the calculated view angle such that the rotatable second camera has a photography direction corresponding to the view direction of the user.
Compositions consisting of a) a poly(alkyl)(meth)acrylate matrix material b) at least one additive of the formula (I) M 1 m1 M 2 m2 D 1 d1 D 2 d2 (I) with M 1 = [R 3 SiO 1/2 ] M 2 = [R 2 R 1 SiO 1/2 ] D 1 = [R 2 SiO 2/2 ] D 2 = [RR 1 SiO 2/2 ] where R is independently an alkyl radical or an aromatic or alkylaromatic radical, where the alkyl radicals preferably have 1 to 4 carbon atoms and the aromatic or alkylaromatic radicals preferably have 6 to 8 carbon atoms, R 1 is independently - R 3 - (O - R 4 ) p where R 4 is a polyester radical, R 3 is a p+1-valent hydrocarbon interrupted by oxygen atoms, having 3 to 10 carbon atoms, where p is 1 to 4, with d1 = 5 to 70, d2 = 0 to 20, m1 = 0 to 2, m2 = 0 to 2, with the proviso that: m 1 + m 2 = 2 , N = d1 + d2+2 = 10 to 80, d 2 + m 2 ≥ 1 . a) a poly(alkyl)(meth)acrylate matrix material b) at least one additive of the formula (I) M 1 m1 M 2 m2 D 1 d1 D 2 d2 (I) with M 1 = [R 3 SiO 1/2 ] M 2 = [R 2 R 1 SiO 1/2 ] D 1 = [R 2 SiO 2/2 ] D 2 = [RR 1 SiO 2/2 ] where R is independently an alkyl radical or an aromatic or alkylaromatic radical, where the alkyl radicals preferably have 1 to 4 carbon atoms and the aromatic or alkylaromatic radicals preferably have 6 to 8 carbon atoms, R 1 is independently - R 3 - (O - R 4 ) p where R 4 is a polyester radical, R 3 is a p+1-valent hydrocarbon interrupted by oxygen atoms, having 3 to 10 carbon atoms, where p is 1 to 4, with d1 = 5 to 70, d2 = 0 to 20, m1 = 0 to 2, m2 = 0 to 2, with the proviso that: m 1 + m 2 = 2 , N = d1 + d2+2 = 10 to 80, d 2 + m 2 ≥ 1 . M 1 = [R 3 SiO 1/2 ] M 2 = [R 2 R 1 SiO 1/2 ] D 1 = [R 2 SiO 2/2 ] D 2 = [RR 1 SiO 2/2 ] R is independently an alkyl radical or an aromatic or alkylaromatic radical, where the alkyl radicals preferably have 1 to 4 carbon atoms and the aromatic or alkylaromatic radicals preferably have 6 to 8 carbon atoms, R 1 is independently - R 3 - (O - R 4 ) p where R 4 is a polyester radical, R 3 is a p+1-valent hydrocarbon interrupted by oxygen atoms, having 3 to 10 carbon atoms, where p is 1 to 4, with d1 = 5 to 70, d2 = 0 to 20, m1 = 0 to 2, m2 = 0 to 2, with the proviso that: m 1 + m 2 = 2 , N = d1 + d2+2 = 10 to 80, d 2 + m 2 ≥ 1 .
Method for producing a plastic cover with a transparent section in a multi-component injection-moulding process, comprising the steps of: - applying an imprint to at least one subregion of a transparent film ; and - moulding a first, transparent component onto the side of the film to which the imprint has been applied, in an injection-moulding process, wherein the composite comprising the film and the transparent component forms a first element of the plastic cover , characterized by moulding a second component onto the first element of the plastic cover , wherein the imprint on the film conceals evident structural means and/or unsightly traces of production and wherein the second injection-moulding component of the plastic cover finishes flush with the first element of the plastic cover , in a plane with a surface of the film of the first element that is facing the viewer. - applying an imprint to at least one subregion of a transparent film ; and - moulding a first, transparent component onto the side of the film to which the imprint has been applied, in an injection-moulding process, wherein the composite comprising the film and the transparent component forms a first element of the plastic cover ,
An integrated LIDAR measurement device , comprising: an illumination source mounted to a printed circuit board ; and a Gallium Nitride, GaN, based illumination driver integrated circuit, IC, mounted to the printed circuit board , the illumination driver IC electrically coupled to the illumination source and a first electrical power source , wherein the illumination driver IC is configured to selectively electrically couple the illumination source to the first electrical power source in response to a pulse trigger signal , causing the illumination source to emit a measurement pulse of illumination light , wherein the GaN based illumination driver IC includes a power save control module that is configured to supply a controlled amount of electrical power to a portion of the GaN based illumination driver IC based on the pulse trigger signal such that power consumption of the portion of the GaN based illumination driver IC is reduced during idle periods between emission of measurement pulses. an illumination source mounted to a printed circuit board ; and a Gallium Nitride, GaN, based illumination driver integrated circuit, IC, mounted to the printed circuit board , the illumination driver IC electrically coupled to the illumination source and a first electrical power source , wherein the illumination driver IC is configured to selectively electrically couple the illumination source to the first electrical power source in response to a pulse trigger signal , causing the illumination source to emit a measurement pulse of illumination light , wherein the GaN based illumination driver IC includes a power save control module that is configured to supply a controlled amount of electrical power to a portion of the GaN based illumination driver IC based on the pulse trigger signal such that power consumption of the portion of the GaN based illumination driver IC is reduced during idle periods between emission of measurement pulses.
A carboxylic acid-modified nitrile-based copolymer latex comprising a carboxylic acid-modified nitrile-based copolymer including a conjugated diene-based monomer-derived unit, an ethylenic unsaturated nitrile-based monomer-derived unit, and an ethylenic unsaturated acid monomer-derived unit, wherein the carboxylic acid-modified nitrile-based copolymer latex satisfies the following General Formula 1 and General Formula 2: 1.0 mm 2 / s ≤ CV 0 ≤ 3.0 mm 2 / s 0.85 ≤ P ≤ 1.0 , P = CV D / CV 0 in General Formulas 1 and 2, CV 0 represents a capillary viscosity of the carboxylic acid-modified nitrile-based copolymer latex measured in a swollen state in a methyl ethyl ketone solvent, and CV D represents a capillary viscosity of the carboxylic acid-modified nitrile-based copolymer latex in a deswollen state; wherein CV D and CV 0 were measured by the methods disclosed under Experimental Example 1 on pages 57 to 58 of the application as originally filed.
A corner piece configured to retain an exterior edge protector and space it apart from an external edge of an article, the corner piece having a body comprising: - an inner member having an apex ; - an outer member having an apex ; - a connecting member connecting the inner member to the outer member and substantially aligning their respective apexes, the outer member and the inner member being spaced apart from one another; and - a securing element provided in the outer member, the securing element comprising substantially U-shaped retaining walls engageable with the exterior edge protector to retain the exterior edge protector along the outer member. - an inner member having an apex ; - an outer member having an apex ; - a connecting member connecting the inner member to the outer member and substantially aligning their respective apexes, the outer member and the inner member being spaced apart from one another; and - a securing element provided in the outer member, the securing element comprising substantially U-shaped retaining walls engageable with the exterior edge protector to retain the exterior edge protector along the outer member.
A rodent trap comprising a housing comprising a kill compartment , housing at least one electric shocking device , in which a rodent is shocked, an entrance tunnel at a first end of the kill compartment, and a door at a second end of the kill compartment remote from the first end , which entrance tunnel is of a length (I) and shape (s) so as to prevent an operative accidentally inserting a hand into the kill compartment characterised in that the entrance tunnel comprises a sensor , for identifying entrance of a rodent into the trap, and the trap comprises a power source, an interface and printed circuit board (28; 34; 44b), configured for determining that an electric shocking device has triggered, that the rodent has not subsequently departed from the trap within a defined time period (t), and which facilitates communication sending a signal remotely.
A system for enabling communication between a fluid extraction facility, said facility being located underwater, and a remote location, comprising: communications carrying means located in an umbilical connected between the facility and the remote location; signal transmission means at the remote location for transmitting signals to a first end of the communications carrying means; a distribution hub located at the underwater facility for receiving signals from a second end of the communications carrying means and a plurality of secondary hubs located at the facility, wherein communication between the facility and the remote location is effected using a Local Area Network, wherein the secondary hubs are in communication with the distribution hub so that signals from the second end of the communications carrying means received by the distribution hub are output from the distribution hub to the secondary hubs and the secondary hubs are connected for Ethernet communication with the distribution hub in a star or ring configuration, each secondary hub being connected to at least one control module for a fluid extraction means, each control module comprising a subsea electronics module, the subsea electronics module comprising: an Ethernet hub for linking the subsea electronics module to the secondary hub connected thereto; data acquisition and control electronics; and an Ethernet enabler interfacing with the data acquisition and control electronics and connected to the Ethernet hub. communications carrying means located in an umbilical connected between the facility and the remote location; signal transmission means at the remote location for transmitting signals to a first end of the communications carrying means; a distribution hub located at the underwater facility for receiving signals from a second end of the communications carrying means and a plurality of secondary hubs located at the facility, wherein communication between the facility and the remote location is effected using a Local Area Network, wherein the secondary hubs are in communication with the distribution hub so that signals from the second end of the communications carrying means received by the distribution hub are output from the distribution hub to the secondary hubs and the secondary hubs are connected for Ethernet communication with the distribution hub in a star or ring configuration, each secondary hub being connected to at least one control module for a fluid extraction means, each control module comprising a subsea electronics module, the subsea electronics module comprising: an Ethernet hub for linking the subsea electronics module to the secondary hub connected thereto; data acquisition and control electronics; and an Ethernet enabler interfacing with the data acquisition and control electronics and connected to the Ethernet hub. an Ethernet hub for linking the subsea electronics module to the secondary hub connected thereto; data acquisition and control electronics; and an Ethernet enabler interfacing with the data acquisition and control electronics and connected to the Ethernet hub.
A protective headgear comprising: (i) an outer shell , which surrounds the head of a wearer and in so doing defines a space between the head of the wearer and an underside of the outer shell ; (ii) a heat-absorbing pad ; and (iii) a forced air ventilation apparatus ; wherein the heat-absorbing pad is positioned within the outer shell in the space formed between the head of the wearer and the outer shell, and wherein the forced air ventilation apparatus is arranged so as to provide a flow of ambient air from outside of the outer shell , characterized in that the flow of ambient air passes above and below the heat-absorbing pad within the space between the head of the wearer and the underside of the outer shell. (i) an outer shell , which surrounds the head of a wearer and in so doing defines a space between the head of the wearer and an underside of the outer shell ; (ii) a heat-absorbing pad ; and (iii) a forced air ventilation apparatus ;
A bin assembly for a refrigeration appliance comprising: a substrate defining a compartment including a central portion , a first lateral portion , a second lateral portion and a cavity formed within each lateral portion and external to the compartment , each cavity having a perimeter wall with an exterior wall ; wherein each cavity houses a locking member , said locking member having a flange extending therefrom, wherein the locking member is disposed within an opening defined by the exterior wall of each cavity and is rotatable in a first direction (R) from a first, mounting position to a second, assembly position, wherein the flange is positioned within the cavity when the locking member is in the second position, and wherein the locking member is engaged with the substrate in the second position; a cover configured to be coupled with the locking member on an opposing side of the substrate from the flange in said second, assembly position; and a rotatable member including a wheel and an axle , operably coupled with an aperture defined by the cover , the locking member , and the exterior wall of the cavity , wherein the locking member and the cover are configured to form a shape coupling in said second, assembly position, thereby inhibiting rotation of the locking member relative to the opening and wherein the cover is also configured to couple with the substrate to inhibit rotation of the locking member relative to the opening , thereby securing the locking member in the second position. a substrate defining a compartment including a central portion , a first lateral portion , a second lateral portion and a cavity formed within each lateral portion and external to the compartment , each cavity having a perimeter wall with an exterior wall ; wherein each cavity houses a locking member , said locking member having a flange extending therefrom, wherein the locking member is disposed within an opening defined by the exterior wall of each cavity and is rotatable in a first direction (R) from a first, mounting position to a second, assembly position, wherein the flange is positioned within the cavity when the locking member is in the second position, and wherein the locking member is engaged with the substrate in the second position; a cover configured to be coupled with the locking member on an opposing side of the substrate from the flange in said second, assembly position; and a rotatable member including a wheel and an axle , operably coupled with an aperture defined by the cover , the locking member , and the exterior wall of the cavity , wherein the locking member and the cover are configured to form a shape coupling in said second, assembly position, thereby inhibiting rotation of the locking member relative to the opening and wherein the cover is also configured to couple with the substrate to inhibit rotation of the locking member relative to the opening , thereby securing the locking member in the second position.
A machine for compacting a powder material (CP) comprising ceramic powder; the machine comprises a compacting device , which is arranged at a working station and is designed to compact the powder material (CP) so as to obtain a layer of compacted powder material (KP); a conveyor assembly to transport the powder material (CP) along a first portion (PA) of a given path in an advancing direction (A) from an inlet station to the working station and the layer of compacted powder material (KP) from the working station along a second portion (PB) of the given path; and a feeding assembly , which is designed to feed the powder material (CP) to the conveyor assembly at the inlet station and comprises a transfer chamber (TC), which is designed to hold and transfer the powder material (CP), in particular along a transfer path (TP); wherein the transfer chamber (TC) has a first wall , which is crosswise to the advancing direction (A), and at least a second wall , which is crosswise to the advancing direction (A), faces the first wall and is arranged upstream of the first wall relative to the advancing direction (A); the feeding assembly comprises at least an advancing assembly , which in turn comprises at least a first belt at least partially arranged at the first wall and a first moving device to move the first belt towards the conveyor assembly ; the advancing assembly further comprises at least a second belt , at least partially arranged at the second wall , and a second moving device to move the second belt towards the conveyor assembly ; characterized in that the first moving device comprises a first adjusting assembly to adjust the crosswise position of the first belt ; in particular, the second moving device comprises a second adjusting assembly to adjust the crosswise position of the second belt. wherein the transfer chamber (TC) has a first wall , which is crosswise to the advancing direction (A), and at least a second wall , which is crosswise to the advancing direction (A), faces the first wall and is arranged upstream of the first wall relative to the advancing direction (A); the feeding assembly comprises at least an advancing assembly , which in turn comprises at least a first belt at least partially arranged at the first wall and a first moving device to move the first belt towards the conveyor assembly ; the advancing assembly further comprises at least a second belt , at least partially arranged at the second wall , and a second moving device to move the second belt towards the conveyor assembly ; characterized in that the first moving device comprises a first adjusting assembly to adjust the crosswise position of the first belt ; in particular, the second moving device comprises a second adjusting assembly to adjust the crosswise position of the second belt.
A wick assembly for use with a heat pipe assembly comprising a container and a container lid , the wick assembly comprising: a wick ; and an end plug coupled to the wick , characterized in that the end plug comprises a rod extending therefrom; and the rod is configured to be inserted into a recess defined in the container lid . a wick ; and an end plug coupled to the wick , characterized in that the end plug comprises a rod extending therefrom; and the rod is configured to be inserted into a recess defined in the container lid .