mhurhangee/patent-ind-claim-en huggingface dataset:
An electrical plug connector , having a plug connector housing , a locking securement means for locking the plug connector to a corresponding electrical mating plug connector , and a securing element displaceable between a pre-latching position and a securing position, wherein the securing element blocks the locking securement means in the securing position to prevent unlocking of the mating plug connector , wherein the plug connector housing forms a feed along which the securing element is displaceable from outside the plug connector housing in the direction of the longitudinal axis (L) of the plug connector housing into the pre-latching position, wherein the securing element has at least one guide pin which is engageable with the feed of the plug connector housing for displacing the securing element into the pre-latching position in order to guide the securing element during the displacement into the pre-latching position, characterized in that the feed is in the form of one or more guide grooves, which extend on an inner face of a side wall of the plug connector housing .
An inhaler housing comprising a receiving portion adapted to at least partially receive a container containing a medicament, and a dispensing portion through which the medicament is dispensed, wherein the receiving portion and the dispensing portion are movable relative to one another between a storage condition, in which the receiving portion and the dispensing portion at least partially overlie one another, and a use condition, wherein the dispensing portion and the receiving portion are configured to move between the storage condition and the use condition using both a sliding movement and a pivoting movement, wherein the inhaler housing includes one or more retention members adapted to retain the inhaler housing in the use condition, wherein the dispensing portion is provided with one or more protrusions which is the point about which the receiving portion and the dispensing portion pivots relative to one another, and wherein the dispensing portion is provided with a cut out portion , the cut out portion receiving a portion of an outer surface of the receiving portion such that the outer surface abuts the cut out portion .
An imaging device comprising: a semiconductor substrate including a first surface that receives light from outside, and a second surface opposite to the first surface; a first transistor located on the second surface; and a photoelectric converter that faces the second surface and that receives light transmitted through the semiconductor substrate, wherein the semiconductor substrate is a silicon substrate or a silicon compound substrate, the photoelectric converter includes a first electrode electrically connected to the first transistor, a second electrode, and a photoelectric conversion layer that is located between the first electrode and the second electrode and that contains a material which absorbs light having a first wavelength longer than or equal to 1.1 μm, the first electrode is located between the second surface and the photoelectric conversion layer, and a spectral sensitivity of the material in a wavelength region of longer than or equal to 1.0 μm and shorter than 1.1 μm is within a range of more than or equal to 0% and less than or equal to 5% of a maximum value of a spectral sensitivity of the material in a wavelength region of longer than or equal to 1.1 μm. a semiconductor substrate including a first surface that receives light from outside, and a second surface opposite to the first surface; a first transistor located on the second surface; and a photoelectric converter that faces the second surface and that receives light transmitted through the semiconductor substrate, wherein the semiconductor substrate is a silicon substrate or a silicon compound substrate, the photoelectric converter includes a first electrode electrically connected to the first transistor, a second electrode, and a photoelectric conversion layer that is located between the first electrode and the second electrode and that contains a material which absorbs light having a first wavelength longer than or equal to 1.1 μm, a first electrode electrically connected to the first transistor, a second electrode, and a photoelectric conversion layer that is located between the first electrode and the second electrode and that contains a material which absorbs light having a first wavelength longer than or equal to 1.1 μm, the first electrode is located between the second surface and the photoelectric conversion layer, and a spectral sensitivity of the material in a wavelength region of longer than or equal to 1.0 μm and shorter than 1.1 μm is within a range of more than or equal to 0% and less than or equal to 5% of a maximum value of a spectral sensitivity of the material in a wavelength region of longer than or equal to 1.1 μm.
Interior aircraft light , comprising: a mounting structure for mounting the interior aircraft light to an aircraft seat ; a UV radiation source ; a visible light source ; an optical system, configured to direct UV radiation from the UV radiation source towards a floor portion underneath the aircraft seat ; and a second optical system, configured to direct visible light from the visible light source towards an aisle floor portion sideways of the aircraft seat . a mounting structure for mounting the interior aircraft light to an aircraft seat ; a UV radiation source ; a visible light source ; an optical system, configured to direct UV radiation from the UV radiation source towards a floor portion underneath the aircraft seat ; and a second optical system, configured to direct visible light from the visible light source towards an aisle floor portion sideways of the aircraft seat .
An electrode assembly, comprising: a cathode plate and an anode plate ; a separator positioned between the cathode plate and the anode plate ; and coating layers positioned between the separator and the cathode plate and between the separator and the anode plate , wherein the separator includes a first portion (A) covered with the coating layer , and a second portion (B) exposing a surface facing the cathode plate and a surface facing the anode plate , and the second portion (B) is positioned at an edge of the separator , wherein the cathode plate includes a cathode current collector and a cathode active material layer , and the anode plate includes an anode current collector and an anode active material layer , and the second portion (B) of the separator overlaps the cathode active material layer and the anode active material layer in a direction vertical to an upper surface of the separator , and wherein a portion of the cathode current collector and a portion of the anode current collector which overlap an entire region occupied by the second portion (B) of the separator in the direction vertical to the upper surface of the separator are covered with the cathode active material layer and the anode active material layer , respectively, characterized in that the separator includes an olefin-based polymer, and the separator is capable of thermal shrinkage, and at least one of the cathode plate and the anode plate includes a positive temperature coefficient (PTC) material . a cathode plate and an anode plate ; a separator positioned between the cathode plate and the anode plate ; and coating layers positioned between the separator and the cathode plate and between the separator and the anode plate , wherein the separator includes a first portion (A) covered with the coating layer , and a second portion (B) exposing a surface facing the cathode plate and a surface facing the anode plate , and the second portion (B) is positioned at an edge of the separator , wherein the cathode plate includes a cathode current collector and a cathode active material layer , and the anode plate includes an anode current collector and an anode active material layer , and the second portion (B) of the separator overlaps the cathode active material layer and the anode active material layer in a direction vertical to an upper surface of the separator , and wherein a portion of the cathode current collector and a portion of the anode current collector which overlap an entire region occupied by the second portion (B) of the separator in the direction vertical to the upper surface of the separator are covered with the cathode active material layer and the anode active material layer , respectively, characterized in that the separator includes an olefin-based polymer, and the separator is capable of thermal shrinkage, and at least one of the cathode plate and the anode plate includes a positive temperature coefficient (PTC) material .
Arrangement for reducing the consequences of a flashback of a flame into a mixture path of a premix burner in a heater which is operable with a mixture of hydrogen or a hydrogen-containing fuel gas as fuel gas and air, the arrangement comprising: - a premix burner , - a mixture path of the premix burner , - a burner body of the premix burner , - a blower , - a pressure relief valve , wherein the pressure relief valve is arranged in the mixture path between the burner body and the blower , and is set in such a way that it is closed during normal operation of the premix burner , characterised in that the mixture path has an intersection at which mixture from the blower can flow in laterally from a blower branch , but a pressure wave running in the opposite direction enters the pressure relief valve . - a premix burner , - a mixture path of the premix burner , - a burner body of the premix burner , - a blower , - a pressure relief valve , wherein the pressure relief valve is arranged in the mixture path between the burner body and the blower , and is set in such a way that it is closed during normal operation of the premix burner , characterised in that the mixture path has an intersection at which mixture from the blower can flow in laterally from a blower branch , but a pressure wave running in the opposite direction enters the pressure relief valve .
Moulding unit for forming containers made of thermoplastic material from preforms , in particular by blow-moulding or stretch-blow-moulding, the moulding unit having: - two mould supports able to move between an open position and a closed position; - a mould having at least two half-moulds each one of which is intended to be mounted on one of the associated mould supports , each half-mould being delimited by a front joint face and by a rear assembly face , the two half-moulds being liable to occupy a position in which they are joined by their joint faces when the mould supports occupy their closed position; - a moulding cavity that is produced in two parts in each joint face and that is reconstituted when the mould occupies its joined position, the cavity opening vertically upwards via a passage orifice intended to allow a neck of the preform to pass through; in the joined position, the assembly faces of the mould have: - a first transverse vertical plane (P1) that extends along the joint faces and that passes through the centre (C) of the passage orifice , and - a second vertical plane (P2) of symmetry orthogonal to the first plane (P1) of symmetry, the two planes (P1, P2) of symmetry intersecting at a central vertical axis (O) of the mould ; characterized in that the central axis (C) of the passage orifice is offset transversely relative to the central axis (O) of the mould . - two mould supports able to move between an open position and a closed position; - a mould having at least two half-moulds each one of which is intended to be mounted on one of the associated mould supports , each half-mould being delimited by a front joint face and by a rear assembly face , the two half-moulds being liable to occupy a position in which they are joined by their joint faces when the mould supports occupy their closed position; - a moulding cavity that is produced in two parts in each joint face and that is reconstituted when the mould occupies its joined position, the cavity opening vertically upwards via a passage orifice intended to allow a neck of the preform to pass through; - a first transverse vertical plane (P1) that extends along the joint faces and that passes through the centre (C) of the passage orifice , and - a second vertical plane (P2) of symmetry orthogonal to the first plane (P1) of symmetry, the two planes (P1, P2) of symmetry intersecting at a central vertical axis (O) of the mould ;
A wrapped frozen confection product comprising a frozen confection product and a wrapper, wherein the wrapper comprises a front face, a back face, and sealed ends, the back face having a longitudinal seal running between the sealed ends, the front face of the wrapper has at least one line of weakness defining an opening through which the frozen confection can be removed and the at least one line of weakness is positioned adjacent to the front face of the frozen confection product, wherein at least one line of weakness defining an opening through which the frozen confection product can be removed corresponds to from 5% to 95% of the outline of the cross-sectional shape of the opposing face of the frozen confection product, characterised in that the outline of the cross-sectional shape of the frozen confection product is oval, and the width of the opening is at most 100 percent of the width of the cross-sectional shape of the frozen confection product.
Lighting module for an automotive vehicle, comprising a light guide , at least one light-emitting semiconductor component light source of a first type , at least one light-emitting semiconductor component light source of a second type , the arrangement of the light sources being such that the light sources of the first type and of the second type are capable of emitting light rays in the direction of an entry face of the light guide , further comprising a support and a printed circuit board housed on the support , the at least one light source of the first type being mounted on the printed circuit board , characterized in that the at least one light source of the second type is housed directly on the support .
Workpiece support for supporting pipe material in a pipe processing machine, comprising a rocker and a support rack which is arranged on the rocker so as to be rotatable about an axis of rotation and has a circumferential portion with different bearing portions, characterized in that latching recesses are provided on the support rack and in that at least one latching element is provided on the rocker such that the latching element can be introduced into a latching recess for rotationally locking the support rack relative to the rocker .
A blast chiller apparatus comprising a chilling chamber structured for housing food to be cooled/frozen, a chilling circuit comprising at least a first heat exchanger designed to cool/freeze the chilling chamber ; characterized in comprising a sanitizing system which is configured to sanitize said chilling chamber by destroying and/or inactivating microorganisms contaminating said chilling chamber , said sanitizing system comprising: - a defrost system designed to defrost said first heat exchanger ; - at least an UV source designed to irradiate with ultraviolet radiations the inner surfaces of said chilling chamber ; and - a control system configured to control said defrost system to heat the first heat exchanger so as to cause the inner temperature of the chilling chamber to grow up until it is comprised within a prefixed first temperature range associated with a high performance operating condition of said UV source and being further configured to switch on said UV source when the inner temperature of the chilling chamber falls in said prefixed first temperature range. - a defrost system designed to defrost said first heat exchanger ; - at least an UV source designed to irradiate with ultraviolet radiations the inner surfaces of said chilling chamber ; and - a control system configured to control said defrost system to heat the first heat exchanger so as to cause the inner temperature of the chilling chamber to grow up until it is comprised within a prefixed first temperature range associated with a high performance operating condition of said UV source and being further configured to switch on said UV source when the inner temperature of the chilling chamber falls in said prefixed first temperature range.
Tensile energy absorber for a lightweight structure , in particular for aircraft, spacecraft, watercraft and land vehicles, characterized in that the tensile energy absorber has, for the absorption of kinetic energy, a central portion with two attachment regions each adjoining said central portion on the end sides and intended for mechanical attachment to the lightweight structure , wherein at least one longitudinal axis of the tensile energy absorber extends parallel to two oppositely oriented tensile forces F tensile which act on both sides of the attachment regions , characterized in that the central portion has a friction body , in particular a cylinder or a cone, as integrated force amplifier which is arranged transversely to the tensile force F tensile and to a holding force F holding oriented oppositely thereto, and a surface of the friction body is covered at least with one winding of a cable which is flexible and tension-resistant at least in certain portions, wherein the holding force F holding is provided by an absorber .
Valve unit for modulating the pressure in a pneumatic brake system, comprising an inlet valve (6.1; 6.2) and an outlet valve (7.1; 7.2), which are designed as diaphragm valves and via which a brake pressure outlet can be connected to a brake pressure inlet or a vent outlet or can be shut off relative thereto, and comprising two pilot valves , which are designed as 3/2-way solenoid valves and via each of which a control chamber (27.1, 28.1; 27.2, 28.2) adjoining the diaphragm (17.1, 18.1; 17.2, 18.2) of the associated diaphragm valve (6.1, 7.1; 6.2, 7.2) can be supplied with a control pressure via a control pressure line , wherein the diaphragm valves (6.1, 7.1; 6.2, 7.2) are arranged with parallel actuation axes radially adjacently in a valve housing , and the diaphragms (17.1, 18.1; 17.2, 18.2) of the diaphragm valves (6.1, 7.1; 6.2, 7.2) are clamped between two housing parts , wherein the inlet valve (6.1; 6.2) and/or the outlet valve (7.1; 7.2) is designed in each case as a springless diaphragm valve, and in that the associated control pressure line opens in each case centrally and in an axially oriented manner into the control chamber (27.1, 28.1; 27.2, 28.2) of the relevant diaphragm valve (6.1, 7.1; 6.2, 7.2), characterized in that the control pressure line ends in a tubular nozzle (33, 34; 41, 42) projecting axially into the control chamber (27.1, 28.1; 27.2, 28.2) of the diaphragm valve (6.1, 7.1; 6.2, 7.2) in order to form a nozzle/baffle plate unit.
A method for adjusting a factory-made tintable paint at a point of sale comprising the steps of receiving the factory-made paint in a plurality of containers, wherein each container comprises a first amount of opacifying pigment, adding at least one of a gloss reducer or a gloss enhancer into at least one container, wherein the gloss reducer comprises a matting agent and wherein the gloss enhancer comprises a latex resin to produce a second tintable paint, wherein a second amount of opacifying pigment in the second tintable paint is substantially the same as the first amount.
An imaging system , comprising: a first portion of the system ; a second portion of the system , wherein the second portion rotates with respect to the first portion ; and characterized in that : the imaging system comprises a locking mechanism having a first lock portion on the first portion of the system and a second lock portion on the second portion of the system , and wherein rotating the second portion of the system to one or more pre-determined angles relative to the first portion of the system causes the first lock portion to engage with the second lock portion to prevent the second portion of the system from rotating with respect to the first portion of the system . a first portion of the system ; a second portion of the system , wherein the second portion rotates with respect to the first portion ; and characterized in that : the imaging system comprises a locking mechanism having a first lock portion on the first portion of the system and a second lock portion on the second portion of the system , and wherein rotating the second portion of the system to one or more pre-determined angles relative to the first portion of the system causes the first lock portion to engage with the second lock portion to prevent the second portion of the system from rotating with respect to the first portion of the system . the imaging system comprises a locking mechanism having a first lock portion on the first portion of the system and a second lock portion on the second portion of the system , and wherein rotating the second portion of the system to one or more pre-determined angles relative to the first portion of the system causes the first lock portion to engage with the second lock portion to prevent the second portion of the system from rotating with respect to the first portion of the system .
A thermal exchange and storage (TXES) element comprising: a matrix material substrate ; one or more flue passageways formed in the matrix material substrate to provide for a flow of a heated source fluid through the TXES element , the heated source fluid provided from a heat source ; and one or more working fluid tubes embedded in the matrix material substrate separate from the one or more flue passageways to provide for a flow of a working fluid through the TXES element ; wherein a transfer of thermal energy between the heated source fluid and the working fluid occurs via the matrix material substrate ; and wherein the one or more flue passageways are cast into the matrix material substrate and wherein an inner surface of each of the one or more flue passageways comprises a corrosion resistance material; wherein the corrosion resistance material is in direct contact with the matrix material substrate and the heated source fluid; and wherein multiple of the TXES elements can be stacked in parallel and/or placed in series. a matrix material substrate ; one or more flue passageways formed in the matrix material substrate to provide for a flow of a heated source fluid through the TXES element , the heated source fluid provided from a heat source ; and one or more working fluid tubes embedded in the matrix material substrate separate from the one or more flue passageways to provide for a flow of a working fluid through the TXES element ; wherein a transfer of thermal energy between the heated source fluid and the working fluid occurs via the matrix material substrate ; and wherein the one or more flue passageways are cast into the matrix material substrate and wherein an inner surface of each of the one or more flue passageways comprises a corrosion resistance material; wherein the corrosion resistance material is in direct contact with the matrix material substrate and the heated source fluid; and wherein multiple of the TXES elements can be stacked in parallel and/or placed in series.