mhurhangee/ep-ind-claims huggingface dataset:
Transport module for flat items comprising at least one transport element borne in a transport element carrier having a drive shaft, wherein each transport module of a plurality of transport modules is made for installation in a station of an item processing systems and is of an equal design, wherein the transport element is driven by the drive shaft via transmission means of the transport module, wherein the transport element carrier carries the transmission means of the transport module, characterized in that - the transport element has a lower friction coefficient on the one side than on the other side of an equator; that the transport element carrier has spring means that allow its shifting in and contrary to the direction of gravity; and the installed transport module being borne rotatably around an axis of the drive shaft. - the transport element has a lower friction coefficient on the one side than on the other side of an equator; that the transport element carrier has spring means that allow its shifting in and contrary to the direction of gravity; and the installed transport module being borne rotatably around an axis of the drive shaft.
A cutting device for cutting a material into plates for a surface covering system, comprising: a frame structure comprising at least two essentially parallelly arranged frame portions (2a, 2b) arranged at a distance (d) from each other along a first axis (x), a cutting wire extending between the frame portions (2a, 2b) and connected to the respective frame portions (2a, 2b) wherein the cutting device comprises means for creating a pivoting relative movement between the frame structure and a material, wherein the material is cut and formed by the cutting wire during a pivoting relative movement between the frame structure and the material around a pivot axis (p), characterized in that the pivot axis (p) is running through a pivot point arranged at any point along said first axis (x), wherein the cutting wire extends between the frame portions (2a, 2b) with an angle α to a direction parallel to the first axis (x) of the frame structure. a frame structure comprising at least two essentially parallelly arranged frame portions (2a, 2b) arranged at a distance (d) from each other along a first axis (x), a cutting wire extending between the frame portions (2a, 2b) and connected to the respective frame portions (2a, 2b) wherein the cutting device comprises means for creating a pivoting relative movement between the frame structure and a material, wherein the material is cut and formed by the cutting wire during a pivoting relative movement between the frame structure and the material around a pivot axis (p), characterized in that the pivot axis (p) is running through a pivot point arranged at any point along said first axis (x), wherein the cutting wire extends between the frame portions (2a, 2b) with an angle α to a direction parallel to the first axis (x) of the frame structure.
A system for heating a gas flow, such as an air flow, circulating in a volume delimited in part by a wall, said system comprising said wall and a source for producing heat to heat said gas flow, the heat production source comprises at least one compact tube mono-tubular source (10, 11), which compact tube source comprises - a burner (100, 110) comprising a combustion chamber for burning a pressurised air/gas mixture, - a heat exchanger tube (101, 111) able to be placed at least partially in said volume, said heat exchanger tube (101, 111) having an upstream end connected to the combustion chamber of the burner and a downstream end intended to be disposed outside the volume, the heat exchanger tube (101, 111) being arranged in the conduit so that the pressurised combustion gases produced by the burner circulate in the heat exchanger tube (101, 111) for heating by convection the gas flow circulating in the volume, the system being characterised in that the burner is capable of operating with compact submerged tubes and in that the air/gas mixture is obtained by mixing an air at around 100 mb (10,000 N/m 2) with a gas at around 300 mb (30,000 N/m 2). - a burner (100, 110) comprising a combustion chamber for burning a pressurised air/gas mixture, - a heat exchanger tube (101, 111) able to be placed at least partially in said volume, said heat exchanger tube (101, 111) having an upstream end connected to the combustion chamber of the burner and a downstream end intended to be disposed outside the volume, the heat exchanger tube (101, 111) being arranged in the conduit so that the pressurised combustion gases produced by the burner circulate in the heat exchanger tube (101, 111) for heating by convection the gas flow circulating in the volume,
A flow control system mountable on a leading edge of an aircraft engine inlet nacelle housing a fan of a turbofan engine, the leading edge circumscribing an inlet providing air flow into the engine, and characterized in that the system comprising: a cascade of translating turning vanes (17a-17e) configured to extend from the leading edge of the nacelle; and at least one actuator drivingly engaging the cascade of translating turning vanes to translate the cascade from a retracted position to an extended position; wherein the cascade of translating turning vanes are engaged by a plurality of longitudinal ribs forming translating turning vane segments; and wherein each translating turning vane segment has a nose vane and at least one trailing vane (17b, 17c, 17d, 17e) supported by the longitudinal ribs to provide spacing of flow channels (26a - 26e) between the vanes. a cascade of translating turning vanes (17a-17e) configured to extend from the leading edge of the nacelle; and at least one actuator drivingly engaging the cascade of translating turning vanes to translate the cascade from a retracted position to an extended position; wherein the cascade of translating turning vanes are engaged by a plurality of longitudinal ribs forming translating turning vane segments; and wherein each translating turning vane segment has a nose vane and at least one trailing vane (17b, 17c, 17d, 17e) supported by the longitudinal ribs to provide spacing of flow channels (26a - 26e) between the vanes.
A switch including a light emitting member and a push switch on a mount, comprising: a cover plate provided on the mount and configured to cover the light emitting member and the push switch, wherein the cover plate comprises: a rubber dome disposed at a position corresponding to the push switch; a light emitting member cover configured to cover the light emitting member at a predetermined distance from an upper surface of the light emitting member; and a light leak prevention protrusion configured to surround a periphery of the light emitting member and to extend upward up to a predetermined height; wherein the rubber dome, the light emitting member cover and the light leak prevention protrusion are integrated together; characterised in that a height of the light leak prevention protrusion extending upward has a dimension of 100% to 110 % relative to a height of the rubber dome protruding upward. a cover plate provided on the mount and configured to cover the light emitting member and the push switch, wherein the cover plate comprises: a rubber dome disposed at a position corresponding to the push switch; a light emitting member cover configured to cover the light emitting member at a predetermined distance from an upper surface of the light emitting member; and a light leak prevention protrusion configured to surround a periphery of the light emitting member and to extend upward up to a predetermined height; wherein the rubber dome, the light emitting member cover and the light leak prevention protrusion are integrated together; characterised in that a height of the light leak prevention protrusion extending upward has a dimension of 100% to 110 % relative to a height of the rubber dome protruding upward. a rubber dome disposed at a position corresponding to the push switch; a light emitting member cover configured to cover the light emitting member at a predetermined distance from an upper surface of the light emitting member; and a light leak prevention protrusion configured to surround a periphery of the light emitting member and to extend upward up to a predetermined height; wherein the rubber dome, the light emitting member cover and the light leak prevention protrusion are integrated together; characterised in that a height of the light leak prevention protrusion extending upward has a dimension of 100% to 110 % relative to a height of the rubber dome protruding upward.
An organic Light Emitting Diode element, comprising a transparent substrate, a light scattering layer, a first electrode, an organic light-emitting layer, a second electrode and a sealing substrate, wherein the transparent substrate has a first region, a second region and a third region above an upper surface thereof, the second region is adjacent to the first region, and the first region is adjacent to the third region, the light scattering layer has a base material comprising a glass, and a plurality of scattering materials dispersed in the base material and is placed on the transparent substrate over the first region, the second region and the third region, the first electrode is placed on the light scattering layer so as to extend over the first region and the second region, the organic light-emitting layer is placed in the first region above the upper surface of the transparent substrate so as to come into direct contact with the first electrode and the light scattering layer, the second electrode is placed so as to extend over the first region and the third region so that the second electrode comes into direct contact with at least a part of the organic light-emitting layer and a part of the light scattering layer, and the sealing substrate is placed in the first region so as to cover the portion of the second electrode placed in the first region.
A composition comprising about 10 weight percent or greater of one or more first 1,1-disubstituted alkene compounds wherein each carbonyl group independently has a hydrocarbyl group bonded to the carbonyl groups by a direct bond, an oxygen atom, a nitrogen atom or a sulfur atom wherein one or more of the hydrocarbyl groups comprise an aryl group, aralkyl group, alkaryl group with the aryl group bonded to the 1 or 2 carbon atom, a cycloalkyl group, an alkyl group with a cycloalkyl group on the 1 or 2 carbon atom, or a branched alkyl group wherein the 1 carbon atom is a tertiary or the 1 and 2 carbon atoms are secondary; and about 10 weight percent or greater of one or more second 1,1-disubstituted alkene compounds wherein each carbonyl group independently has a hydrocarbyl group bonded to the carbonyl groups by a direct bond or a heteroatom, and the hydrocarbyl groups are selected such that homopolymers prepared from the second 1,1-disubstituted alkenes exhibit glass transition temperatures of less than 60 °C, wherein the first 1,1-disubstituted alkene compounds are different form the second 1,1-disubstituted alkene compounds, and wherein a polymer prepared from the composition exhibits a glass transition temperature of greater than 35 °C, wherein the glass transition temperature is determined by DSC plots using a Q2000 Differential Scanning Calorimeter by TA Instruments with a 10 °C / minute heating rate.
Toffee gum comprising a polymer system, and at least 1% by weight of chocolate, said polymer system constituting at least 10% by weight of said toffee gum, at least 70% by weight of said polymer system comprising polyvinyl acetate, said polyvinyl acetate having a glass transition temperature (T g) in the range of 0 to 60 °C, and said chocolate constituting at the most 90% by weight of said toffee gum.
A method for a User Equipment, in the following also referred to as UE, comprising: receiving a first Medium Access Control-Control Element, in the following also referred to as MAC-CE, including a plurality of Transmission Configuration Indication, in the following also referred to as TCI, state Identities, in the following also referred to as IDs, to be activated for receiving Physical Downlink Shared Channel, in the following also referred to as PDSCH, via multiple TCI states concurrently, wherein length of the first MAC-CE depends on amount of the plurality of TCI state IDs; activating a plurality of TCI states associated with the plurality of TCI state IDs included in the first MAC-CE for receiving the PDSCH in response to reception of the first MAC-CE; receiving a second MAC-CE including a bitmap to activate at least one TCI state for receiving the PDSCH via single TCI state, wherein a bit of the bitmap set to 1 indicates to activate a specific TCI state for receiving the PDSCH and the bit set to 0 indicates to deactivate the specific TCI state for receiving the PDSCH; and activating the specific TCI state for receiving the PDSCH if the bit is set to 1 and deactivating the specific TCI state for receiving the PDSCH if the bit is set to 0 in response to reception of the second MAC-CE. receiving a first Medium Access Control-Control Element, in the following also referred to as MAC-CE, including a plurality of Transmission Configuration Indication, in the following also referred to as TCI, state Identities, in the following also referred to as IDs, to be activated for receiving Physical Downlink Shared Channel, in the following also referred to as PDSCH, via multiple TCI states concurrently, wherein length of the first MAC-CE depends on amount of the plurality of TCI state IDs; activating a plurality of TCI states associated with the plurality of TCI state IDs included in the first MAC-CE for receiving the PDSCH in response to reception of the first MAC-CE; receiving a second MAC-CE including a bitmap to activate at least one TCI state for receiving the PDSCH via single TCI state, wherein a bit of the bitmap set to 1 indicates to activate a specific TCI state for receiving the PDSCH and the bit set to 0 indicates to deactivate the specific TCI state for receiving the PDSCH; and activating the specific TCI state for receiving the PDSCH if the bit is set to 1 and deactivating the specific TCI state for receiving the PDSCH if the bit is set to 0 in response to reception of the second MAC-CE.
Household dishwasher with a dishwasher cavity for receiving dishes, glasses, cutlery or similar items to be washed, wherein this household dishwasher is provided with at least one heat pump which can be operated during part of a wash cycle, said heat pump comprising a condenser and an evaporator in a circuit through which heat pump medium flows, wherein at least two substantially flat tanks (27; 28) are assigned to the evaporator, of which at least one inner tank can be used either as a heat coupler of the outer tank toward the dishwasher cavity when filled with liquid or as a thermal isolator toward the dishwasher cavity when filled with air and wherein parts of the evaporator are arranged in the at least one outer tank, wherein provision is made for a first inlet valve for jointly filling one or two outer tanks and for an outlet valve for conducting a liquid contained in the at least one inner tank into the dishwasher cavity, characterised in that a second inlet valve is provided for filling or blocking the supply to an inner tank.
Valve member for a dispenser valve for foam products, in particular for a dispenser valve for a polyurethane foam container, comprising a valve member that is moveable relative to a sealing, characterised in that the valve member is made of plastic material filled with wollastonite particles in an amount between 1 % and 60 % by weight.
A fuel control system for a gas turbine engine having a core engine comprising at least one core engine spool in which a compressor and a turbine are interconnected by a shaft, the system including: a metering valve operable to control the rate at which pressurised fuel is delivered to a combustor of the engine, when the fuel control system is installed and in use; a first engine sensor which determines a power output of the engine; a control unit which is configured to compare the determined power output with a power threshold value, and to command a reduction in fuel supplied to the engine when the determined power output exceeds the power threshold value; and a second engine sensor which measures the rate of change of rotational speed of the core engine spool; characterised in that the control unit is further configured to adjust the power threshold value as a function of the measured rate of change of speed of the core engine spool. a metering valve operable to control the rate at which pressurised fuel is delivered to a combustor of the engine, when the fuel control system is installed and in use; a first engine sensor which determines a power output of the engine; a control unit which is configured to compare the determined power output with a power threshold value, and to command a reduction in fuel supplied to the engine when the determined power output exceeds the power threshold value; and a second engine sensor which measures the rate of change of rotational speed of the core engine spool; characterised in that the control unit is further configured to adjust the power threshold value as a function of the measured rate of change of speed of the core engine spool.
Method for producing a through-hole (13, 13') in a ceramic layer system (1, 1', 1''), which (1, 1', 1'') has at least: a substrate, in particular a metallic substrate, and at least one outer ceramic layer (7, 23), in particular at least one outermost ceramic layer (7, 23), wherein the through-hole (13, 13') has an inner part (10, 10', 10") which is symmetrical, in particular cylindrical, in a cross section, and a diffusor (16, 16'), which represents a widening of the inner part (10, 10', 10'') on the outer surface of the ceramic layer (7, 23), characterized in that a part (20, 20') of a final geometry of the diffusor (16, 16') is produced first at least in the outermost ceramic layer (7, 23) as far as the substrate by means of a nanosecond laser by means of nanosecond pulses, in that a millisecond laser is then used in order to fully produce the inner part (10, 10') of the through-hole (13, 13') in the final geometry thereof by means of millisecond pulses with a pulse length of 0.5 ms up to the millisecond range in the substrate, and in that, in a final working step, the diffusor (16, 16') is produced in its final geometry at least in the ceramic layer (7, 23) by means of the nanosecond laser by means of nanosecond pulses. a substrate, in particular a metallic substrate, and at least one outer ceramic layer (7, 23), in particular at least one outermost ceramic layer (7, 23), wherein the through-hole (13, 13') has an inner part (10, 10', 10") which is symmetrical, in particular cylindrical, in a cross section, and a diffusor (16, 16'), which represents a widening of the inner part (10, 10', 10'') on the outer surface of the ceramic layer (7, 23), characterized in that a part (20, 20') of a final geometry of the diffusor (16, 16') is produced first at least in the outermost ceramic layer (7, 23) as far as the substrate by means of a nanosecond laser by means of nanosecond pulses, in that a millisecond laser is then used in order to fully produce the inner part (10, 10') of the through-hole (13, 13') in the final geometry thereof by means of millisecond pulses with a pulse length of 0.5 ms up to the millisecond range in the substrate, and in that, in a final working step, the diffusor (16, 16') is produced in its final geometry at least in the ceramic layer (7, 23) by means of the nanosecond laser by means of nanosecond pulses.
An outsole for an article of footwear, the outsole comprising: a sole foundation, the sole foundation having a first surface and an opposing second surface, the first surface configured as a ground-contacting surface; and a plurality of tread projections, each of the plurality of tread projections having a sidewall surface and a tread projection distal surface, the sidewall surface extending between the sole foundation first surface and the tread projection distal surface forming a distal surface offset distance, the distal surface having a first area, wherein each tread projection in the plurality of tread projections includes a single extension member (24, 40), the extension member (24, 40) being comprised of a proximal portion and a distal portion, the extension member (24, 40) having an extension member length extending from a tread projection distal surface to an extension member distal end, the extension member (24, 40) having a cross sectional area perpendicular to the extension member length that is a second area, the first area being at least three times the area of the second area, wherein the extension member (24, 40) is at least twice as long as it is wide, and wherein the dimensions of the extension member (24, 40) allow for flexibility that enables the extension member (24, 40) to be pushed against at least a portion of the tread projection distal surface. a sole foundation, the sole foundation having a first surface and an opposing second surface, the first surface configured as a ground-contacting surface; and a plurality of tread projections, each of the plurality of tread projections having a sidewall surface and a tread projection distal surface, the sidewall surface extending between the sole foundation first surface and the tread projection distal surface forming a distal surface offset distance, the distal surface having a first area, wherein each tread projection in the plurality of tread projections includes a single extension member (24, 40), the extension member (24, 40) being comprised of a proximal portion and a distal portion, the extension member (24, 40) having an extension member length extending from a tread projection distal surface to an extension member distal end, the extension member (24, 40) having a cross sectional area perpendicular to the extension member length that is a second area, the first area being at least three times the area of the second area, wherein the extension member (24, 40) is at least twice as long as it is wide, and wherein the dimensions of the extension member (24, 40) allow for flexibility that enables the extension member (24, 40) to be pushed against at least a portion of the tread projection distal surface.
A battery module comprising: a plurality of battery cells having terminal units (11, 12) and being electrically coupled; a top plate placed on the battery cells and including at least one opening; and a terminal cover covering the opening of the top plate, the terminal cover including a release for detachable connection to the top plate wherein the top plate further includes a barrier rib surrounding the opening, wherein the terminal cover includes a base unit overlying the opening, and an extending unit extending from the base unit and being detachably coupled with the barrier rib, wherein the extending unit includes a coupling protrusion thereon, the barrier rib includes a coupling groove thereon, and the coupling protrusion is detachably coupled with the coupling groove, wherein the release includes a slit positioned in the base unit adjacent to the extending unit including the coupling protrusion and wherein the slit has a concave shape with a concavity facing the extending unit and/or the slit has a polygonal shape or an arc shape, the slit further having two closed ends. a plurality of battery cells having terminal units (11, 12) and being electrically coupled; a top plate placed on the battery cells and including at least one opening; and