mhurhangee/ep-ind-claims huggingface dataset:
A cosmetic composition in the form of an emulsion for application to a biologic substrate wherein said composition comprises a fractal gel comprising a first fractal particle and a second fractal particle of opposite surface charge at a given pH below 7-8, wherein said fractal particles have a diameter of between about 50-300 nm, and are metal oxide particles selected from the group consisting of fumed silica, fumed alumina, fumed titania, fumed zirconia, fumed ceria, fumed zinc oxide, fumed indium tin oxide, and mixtures thereof, wherein the dispersions of the first particle type have a zeta potential value of +10 mV to +50 mV and dispersions of the second particle type have a zeta potential value of -10 mV to -50 mV.
A hose reel (1, 1'), comprising: a frame, a reel rotatably arranged within the frame, a rewind mechanism with a spring with a spring tension that increases when the reel is rotated within the frame in a first direction around a rotation axis while a hose is pulled out from the reel, and which spring tension decreases when the spring rotates the reel in a second direction within the frame to rewind the hose to the reel, and an axle (10, 10') which is rotatable in relation to the reel, and wherein a first end of the spring is attached to the reel and a second end of the spring is attached to the axle (10, 10'), characterized in that the hose reel comprises a removable lid (6, 6') which is attached to the frame and which together with the frame encloses an inside of the hose reel substantially from all directions to prevent a user of the hose reel (1, 1') from accessing the inside of the hose reel (1, 1'), and wherein the axle (10, 10') has an outer end (14, 14') with engagement means (15, 15') connecting the outer end (14, 14') of the axle to the lid (6, 6') to prevent mutual rotation between the lid (6, 6') and the outer end (14, 14') in a direction which decreases the spring force of the spring. a frame, a reel rotatably arranged within the frame, a rewind mechanism with a spring with a spring tension that increases when the reel is rotated within the frame in a first direction around a rotation axis while a hose is pulled out from the reel, and which spring tension decreases when the spring rotates the reel in a second direction within the frame to rewind the hose to the reel, and an axle (10, 10') which is rotatable in relation to the reel, and wherein a first end of the spring is attached to the reel and a second end of the spring is attached to the axle (10, 10'), characterized in that the hose reel comprises a removable lid (6, 6') which is attached to the frame and which together with the frame encloses an inside of the hose reel substantially from all directions to prevent a user of the hose reel (1, 1') from accessing the inside of the hose reel (1, 1'), and wherein the axle (10, 10') has an outer end (14, 14') with engagement means (15, 15') connecting the outer end (14, 14') of the axle to the lid (6, 6') to prevent mutual rotation between the lid (6, 6') and the outer end (14, 14') in a direction which decreases the spring force of the spring.
A forward grip to couple to a firearm, the firearm including a trigger, a handle, a barrel extending forward from the trigger and the handle, and a handguard or forestock extending along the barrel, the forward grip comprising: an interface to engage the handguard or forestock forward of the trigger and handle; a body extending downward and rearward from the interface, the body defining an index finger grip surface and defining at least a second grip surface downward and rearward of the index finger grip surface and separated from the index finger grip surface by a ridge; and a thumb paddle extending from a side of the body to engage a thumb below the barrel and below the handguard or forestock, characterized in that the thumb paddle is moveable to select positions along the side of the body and the index finger grip surface is moveable between one or more select positions. an interface to engage the handguard or forestock forward of the trigger and handle; a body extending downward and rearward from the interface, the body defining an index finger grip surface and defining at least a second grip surface downward and rearward of the index finger grip surface and separated from the index finger grip surface by a ridge; and a thumb paddle extending from a side of the body to engage a thumb below the barrel and below the handguard or forestock, characterized in that the thumb paddle is moveable to select positions along the side of the body and the index finger grip surface is moveable between one or more select positions.
An expandable honeycomb, consisting of individual strips of paper, plastic, aluminium, or other web-form materials, which are interconnected by means of alternately successive double and single lands, such that when they are pulled apart a honeycombtype structure is generated, wherein - along the strips is provided a pattern of incisions located transverse to the longitudinal axis of the strips, - each strip is provided with pairs of incisions on the front and rear edges, wherein the pairs of incisions in each case bound a double land, - as viewed along one edge, after a section with pairs of incisions there follows a section without pairs of incisions, and - at the incisions the strips are alternately joined with a left and a right adjacent strip by means of overlap in the region of each double land. - along the strips is provided a pattern of incisions located transverse to the longitudinal axis of the strips, - each strip is provided with pairs of incisions on the front and rear edges, wherein the pairs of incisions in each case bound a double land, - as viewed along one edge, after a section with pairs of incisions there follows a section without pairs of incisions, and - at the incisions the strips are alternately joined with a left and a right adjacent strip by means of overlap in the region of each double land.
An electronic assembly comprising a component carrier, which comprises at least one dielectric layer and a metallic layer, which is attached at the dielectric layer; a wireless communication component, which is attached to or embedded in the component carrier; and an antenna structure, which is formed from a conducting material and which is electrically connected with the wireless communication component; wherein an opening is formed within the component carrier, wherein the opening extends from an upper surface of the component carrier into the interior of the component carrier; wherein the opening is at least partially a slit having a first sidewall portion and a second sidewall portion, wherein the second sidewall portion is opposite and parallel to the first sidewall portion, wherein the slit is a groove, which does not extend completely through the component carrier; wherein the antenna structure is formed at least partially at the first sidewall portion and at the second sidewall portion of the opening; and wherein the two opposing sidewall portions are covered with a metallization layer being a part of the antenna structure. a component carrier, which comprises at least one dielectric layer and a metallic layer, which is attached at the dielectric layer; a wireless communication component, which is attached to or embedded in the component carrier; and an antenna structure, which is formed from a conducting material and which is electrically connected with the wireless communication component;
A driver device for one or more semiconductor light sources, comprising: - a switched-mode power supply coupled to receive a rectified AC voltage and configured to convert it into a DC voltage between a first rail and a second rail, - an output for coupling said one or more semiconductor light sources, a first node of said output coupled to said first rail, - a controllable linear regulator coupled between a second node of said output and said second rail, and - a control circuit coupled to produce a control signal to a control input of said controllable linear regulator, thereby configured to control the amount of current passed by said controllable linear regulator; wherein said control circuit is configured to produce said control signal in proportion to the potential of said second node of said output; characterized in that: - the driver device comprises a capacitor coupled between the control input of the controllable linear regulator and said second rail, and - the driver device is configured to charge said capacitor through a charging resistance (302, 408) if a potential of the second node of said output increases and to controllably discharge said capacitor through a discharging resistance if a potential of the second node of said output decreases. - a switched-mode power supply coupled to receive a rectified AC voltage and configured to convert it into a DC voltage between a first rail and a second rail, - an output for coupling said one or more semiconductor light sources, a first node of said output coupled to said first rail, - a controllable linear regulator coupled between a second node of said output and said second rail, and - a control circuit coupled to produce a control signal to a control input of said controllable linear regulator, thereby configured to control the amount of current passed by said controllable linear regulator; - the driver device comprises a capacitor coupled between the control input of the controllable linear regulator and said second rail, and - the driver device is configured to charge said capacitor through a charging resistance (302, 408) if a potential of the second node of said output increases and to controllably discharge said capacitor through a discharging resistance if a potential of the second node of said output decreases.
Shower or hand shower, having - jet outlet openings, - a valve or "x" (x ≥ 1) valves (40, 41, 42, 43), which control(s) the inflow of a fluid into the jet outlet openings, - - wherein the valve or each of the "x" valves (40, 41, 42, 43) comprises a movable valve body (402, 412, 422, 432) with which at least a first and a second valve position are realised, and for the valve or for each of the "x" valves (40, 41, 42, 43) there is arranged a push button (401, 411, 421, 431) for the actuation thereof, characterised in that at least one further valve is provided for controlling the inflow of a second fluid, which further valve is coupled to the valve or to at least one of the "x" valves and, by means of the associated push button thereof, is actuated or operated simultaneously therewith, the further valve being coupled or connected by means of a lever or a rocker to one of the valves actuatable by means of the push buttons. - jet outlet openings, - a valve or "x" (x ≥ 1) valves (40, 41, 42, 43), which control(s) the inflow of a fluid into the jet outlet openings, - - wherein the valve or each of the "x" valves (40, 41, 42, 43) comprises a movable valve body (402, 412, 422, 432) with which at least a first and a second valve position are realised, and for the valve or for each of the "x" valves (40, 41, 42, 43) there is arranged a push button (401, 411, 421, 431) for the actuation thereof, - - wherein the valve or each of the "x" valves (40, 41, 42, 43) comprises a movable valve body (402, 412, 422, 432) with which at least a first and a second valve position are realised, and for the valve or for each of the "x" valves (40, 41, 42, 43) there is arranged a push button (401, 411, 421, 431) for the actuation thereof,
An electrode assembly including an electrode laminate (71, 72) having a plurality of electrode units rolled up to be stacked on one another in at least two rectangular-shaped separation films (41, 42), wherein different rectangular-shaped separation films (41, 42) are disposed on upper and lower surfaces of at least a portion of an electrode unit among the plurality of electrode units, characterized in that: the electrode laminate (71, 72) includes at least one step formed by stacking an electrode unit having a difference in area from an electrode unit adjacent thereto, having one of the rectangular shaped separation films (41, 42) as a boundary therebetween, in that: a space region is included in which the electrode units are not arrayed on the rectangularly shaped separation films (41, 42), and in that: the respective electrode unit is at least one selected from a group configured of unit cells in which a cathode, an anode, and at least one cathode and at least one anode having a separation film (41, 42) interposed therebetween are alternately stacked on one another.
An air flow management device for a vehicle, comprising: - a support, - at least one deflector wall supported by an actuating system mounted on the support and configured to move the deflector wall along a predefined trajectory relative to the support between a retracted position and a deployed position, the deflector wall being mounted rotating relative to the support about an axis of rotation so as to be able to retract in case of contact of the deflector wall with an obstacle, characterized in that the management device comprises a guide system for guiding the deflector wall along the predefined trajectory and in rotation, the guide system comprising at least one guide groove (50, 52) and at least one guide pin (54, 56) movable in the at least one guide groove (50, 52) along the predefined trajectory between the retracted position and the deployed position, and rotatable in the guide groove (50, 52) about the axis of rotation, the at least one guide groove (50, 52) being arranged in one among the deflector wall and the support and the at least one guide pin (54, 56) being secured to the other among the deflector wall and the support. - a support, - at least one deflector wall supported by an actuating system mounted on the support and configured to move the deflector wall along a predefined trajectory relative to the support between a retracted position and a deployed position, the deflector wall being mounted rotating relative to the support about an axis of rotation so as to be able to retract in case of contact of the deflector wall with an obstacle,
A snowplough, comprising a ploughshare and a support frame for the ploughshare which can be coupled to a carrying vehicle and which is pivotable by means of at least one adjusting device in relation to the support frame for the ploughshare, wherein the ploughshare comprises a support frame for a share plate and the share plate which is attached thereto and is made from a hard-elastic material, especially hard rubber, and the support frame for the share plate further comprises at least two parts (31, 32, 33) which are connected to each other in an articulated manner and which are pivotable against each other about an axis which is approximately vertical in the operating position of the ploughshare, wherein the share plate fixed to the support frame is integral over the entire length of the support frame, characterized in that parts (41, 42) of the share plate or the entire share plate are fastened to the support frame for the share plate in an adjustable manner in relation thereto.
Buffer configuration method, wherein the method comprises: sending, by a first switching device, a first measurement frame to a second switching device; receiving, by the first switching device, a second measurement frame sent by the second switching device, wherein the second measurement frame is generated through triggering based on the first measurement frame; determining, by the first switching device, a buffer configuration parameter based on the first measurement frame and the second measurement frame; and setting, by the first switching device, a local buffer based on the configuration parameter. sending, by a first switching device, a first measurement frame to a second switching device; receiving, by the first switching device, a second measurement frame sent by the second switching device, wherein the second measurement frame is generated through triggering based on the first measurement frame; determining, by the first switching device, a buffer configuration parameter based on the first measurement frame and the second measurement frame; and setting, by the first switching device, a local buffer based on the configuration parameter.
Light signaling device comprising: - a tubular body which has a lower edge and an upper edge and is extended between said lower edge and said upper edge along a main extension axis; said tubular body also has an outer surface and an inner surface which defines a channel inside said tubular body; said inner channel has a lower opening arranged at said lower edge, and an upper opening arranged at said upper edge; - LEDs mechanically connected to the outer surface of said tubular body, said LEDs dissipating heat via conduction through said tubular body; - a lower air conveyor which is mechanically connected to the lower edge of said tubular body, partially closes the lower opening of the inner channel of said tubular body characterized in that said lower air conveyor is provided with a plurality of separate conveyance channels, each of which extended between an inlet section thereof and an outlet section thereof according to a trajectory which has at least one component radial with respect to said main extension axis, each of said separate conveyance channels being in communication with the exterior of said light signaling device by means of said inlet section and each of said separate conveyance channels being in communication with the lower opening of said inner channel by means of said outlet section, said lower air conveyor forcing in the inner channel of said tubular body, through said separate conveyance channels, an air flow that hits said lower air conveyor transversely with respect to the main extension axis of said tubular body, in order to cool said LEDs via convection; each of said conveyance channels being extended for at least one section thereof according to said trajectory having point by point tilt with at least one component orthogonal to the main extension axis of said tubular body and with at least one component parallel to said main extension axis. - a tubular body which has a lower edge and an upper edge and is extended between said lower edge and said upper edge along a main extension axis; said tubular body also has an outer surface and an inner surface which defines a channel inside said tubular body; said inner channel has a lower opening arranged at said lower edge, and an upper opening arranged at said upper edge; - LEDs mechanically connected to the outer surface of said tubular body, said LEDs dissipating heat via conduction through said tubular body; - a lower air conveyor which is mechanically connected to the lower edge of said tubular body, partially closes the lower opening of the inner channel of said tubular body characterized in that said lower air conveyor is provided with a plurality of separate conveyance channels, each of which extended between an inlet section thereof and an outlet section thereof according to a trajectory which has at least one component radial with respect to said main extension axis, each of said separate conveyance channels being in communication with the exterior of said light signaling device by means of said inlet section and each of said separate conveyance channels being in communication with the lower opening of said inner channel by means of said outlet section,
A defibrillator comprising electrodes, a connection for electrically connecting the electrodes together during a test, a defibrillation signal generator, connected to the electrodes, a patient impedance measurement system, connected to the electrodes, comprising a patient impedance measurement signal generator and a patient impedance measurement signal receiver, a defibrillator controller connected to the defibrillation signal generator and the patient impedance measurement system, and an electrode test system, comprising a control signal device, connected to the patient impedance measurement signal receiver, which generates at least one control signal which causes the patient impedance measurement signal receiver to change from a patient impedance measurement signal receive state to an electrode test signal receive state, a test commence signal device, connected to the patient impedance measurement signal generator, which generates at least one test commence signal which causes the patient impedance measurement signal generator to send a test signal to the electrodes, and an electrode test signal device, connected to the patient impedance measurement signal receiver, which receives an electrode test signal and processes the signal to determine a pass test result or a fail test result for the electrodes.
A polyoxymethylene composition comprising: a) at least one polyoxymethylene polymer; b) 0.1 to 5 wt. % of poly alpha-1,3-glucan having a d90 particle size of 50 microns or less; c) optionally, at least one additive selected from the group consisting of nucleating agents, waxes, ultraviolet stabilizers, colorants, antioxidants, formaldehyde scavengers, lubricants, and mixtures of these; wherein said polyoxymethylene composition exhibits a formaldehyde emission of 1 weight percent or less when measured according to the TEF test method which method includes heating pellets of the polyoxymethylene compositions under nitrogen for 30 minutes at a temperature of 259 °C; and wherein said particle size is measured according to ISO 13320:2009. a) at least one polyoxymethylene polymer; b) 0.1 to 5 wt. % of poly alpha-1,3-glucan having a d90 particle size of 50 microns or less; c) optionally, at least one additive selected from the group consisting of nucleating agents, waxes, ultraviolet stabilizers, colorants, antioxidants, formaldehyde scavengers, lubricants, and mixtures of these; wherein said polyoxymethylene composition exhibits a formaldehyde emission of 1 weight percent or less when measured according to the TEF test method which method includes heating pellets of the polyoxymethylene compositions under nitrogen for 30 minutes at a temperature of 259 °C; and wherein said particle size is measured according to ISO 13320:2009. wherein said polyoxymethylene composition exhibits a formaldehyde emission of 1 weight percent or less when measured according to the TEF test method which method includes heating pellets of the polyoxymethylene compositions under nitrogen for 30 minutes at a temperature of 259 °C; and wherein said particle size is measured according to ISO 13320:2009.