mhurhangee/patent-ind-claim-en huggingface dataset:
A pneumatic expulsion device for expelling objects or fluid substances from a reservoir by means of a drive piston which is subjectable to a gas volume compressible in a compression chamber , the drive piston being provided with a drive mechanism for compressing the gas volume and with a trigger for expanding the compressed gas volume, the compression chamber being provided with a filling mechanism for filling the vented compression chamber with compressed air, and the filling mechanism having a connection mechanism which is connected to the compression chamber and which serves to be connected to a compressed air cylinder, characterized in that the compression chamber is provided with a relief mechanism for temporarily venting and emptying the compression chamber , the connection mechanism having a pressure reducer .
A first system, comprising: (a) an object, and (b) an optical filter applied to the object, wherein the optical filter comprises a Cu-porphyrin compound having the following structure: or a salt, or a tautomeric form thereof, wherein: X is carbon, each of R 1 through R 8 is H; and each of R 9 through R 28 is independently H, Br, Cl, sulfonic acid, carboxylic acid, or a carboxylic ester; or two of adjacent R 9 to R 28 form an aromatic ring structure; and provided that not all of R 1 to R 28 are H; and wherein the optical filter selectively filters blue light. (a) an object, and (b) an optical filter applied to the object, X is carbon, each of R 1 through R 8 is H; and each of R 9 through R 28 is independently H, Br, Cl, sulfonic acid, carboxylic acid, or a carboxylic ester; or two of adjacent R 9 to R 28 form an aromatic ring structure; and provided that not all of R 1 to R 28 are H; and wherein the optical filter selectively filters blue light.
A transmission power management method for a wireless communication device, WCD, wherein the WCD is configured to operate in a simultaneously connected mode in relation to a plurality of radio access technologies, RATs, served by respective network nodes, the method comprising: dynamically determining a transmission power distribution for the plurality of RATs subject to a maximum transmission power constraint of the WCD; and causing application of the determined transmission power distribution for the WCD, characterized in that determining the transmission power distribution comprises: continuing operation in simultaneous connected mode in relation to the plurality of RATs when the maximum transmission power constraint of the WCD, together with a respective bandwidth constraint of each of the plurality of RATs and a respective interference constraint of each of the plurality of RATs, indicate that the operation is bandwidth limited; and terminating operation in simultaneous connected mode in relation to the plurality of RATs when the maximum transmission power constraint of the WCD, together with a respective bandwidth constraint of each of the plurality of RATs and a respective interference constraint of each of the plurality of RATs, indicate that the operation is interference limited. dynamically determining a transmission power distribution for the plurality of RATs subject to a maximum transmission power constraint of the WCD; and causing application of the determined transmission power distribution for the WCD, characterized in that continuing operation in simultaneous connected mode in relation to the plurality of RATs when the maximum transmission power constraint of the WCD, together with a respective bandwidth constraint of each of the plurality of RATs and a respective interference constraint of each of the plurality of RATs, indicate that the operation is bandwidth limited; and terminating operation in simultaneous connected mode in relation to the plurality of RATs when the maximum transmission power constraint of the WCD, together with a respective bandwidth constraint of each of the plurality of RATs and a respective interference constraint of each of the plurality of RATs, indicate that the operation is interference limited.
Motor vehicle illumination device having at least one first light guide with at least one light input coupling face (LE1) and at least one light exit face (LA1) assigned to the former, and at least one second light guide with at least one light input coupling face (LE2) and at least one light exit face (LA2) assigned to the former, wherein the first light guide is assigned at least one first light source of the motor vehicle illumination device for injecting light and the second light guide is assigned at least one second light source of the motor vehicle illumination device for injecting light and at least one rib-type light-guiding element that extends at an angle to the light input coupling faces (LE1, LE2) and through which light can be transmitted from one light guide (10 or 20) into the other light guide (20 or 10) is arranged between the light guides , wherein the light input coupling faces (LE1 or LE2) are in each case arranged with respect to the light exit faces (LA1 or LA2) such that an imaginary surface normal (N1 or N2) on a light input coupling face (LE1 or LE2) strikes the light exit face (LA1 or LA2) that is assigned thereto, and wherein the light input coupling faces (LE1, LE2) are parallel to one another and, viewed in the longitudinal direction (L1) of the light guides , the rib-type element is inclined relative to an imaginary plane (E) extending parallel to the light input coupling faces (LE1, LE2) at an angle (α), with the result that at least some of the light of the second light source can reach the light exit face (LA1) of the first light guide but the light of the first light source cannot reach the light exit face (LA2) of the second light guide , characterized in that the first light guide , viewed in a plan view of the motor vehicle illumination device , is embodied such that it at least partially surrounds a region (B), wherein the second light guide is arranged outside the region (B) and wherein at least one further light guide of the motor vehicle illumination device is arranged within the region (B) for generating a low beam and/or a high beam.
Reactive adhesive film, comprising (a) a polymeric film-forming matrix, (b) at least one reactive monomer or reactive resin and (c) a reagent selected from an initiator, in particular a radical initiator, or an activator, characterized in that the at least one reactive monomer or reactive resin comprises N-vinylcaprolactam and/or N-vinylpyrrolidone.
A system for limiting deflection of an exhaust sidewall liner for a variable geometry exhaust duct , the system comprising: the exhaust sidewall liner ; a static structure ; and an exhaust liner deflection limiter connecting the exhaust sidewall liner to the static structure , the exhaust liner deflection limiter comprising: a spacer positioned in the static structure , the spacer comprising: a chimney having a first end and a second end opposite of the first end and an aperture that extends from the first end to the second end ; a flange disposed on the first end ; and at least one anti-rotation tab disposed on the second end near an edge of the second end ; a stud having a head and a shaft , the head being positioned in the exhaust sidewall liner and the shaft extending through the spacer ; and a fastener connected to the shaft to secure the exhaust sidewall liner to the static structure . the exhaust sidewall liner ; a static structure ; and an exhaust liner deflection limiter connecting the exhaust sidewall liner to the static structure , the exhaust liner deflection limiter comprising: a spacer positioned in the static structure , the spacer comprising: a chimney having a first end and a second end opposite of the first end and an aperture that extends from the first end to the second end ; a flange disposed on the first end ; and at least one anti-rotation tab disposed on the second end near an edge of the second end ; a stud having a head and a shaft , the head being positioned in the exhaust sidewall liner and the shaft extending through the spacer ; and a fastener connected to the shaft to secure the exhaust sidewall liner to the static structure . a spacer positioned in the static structure , the spacer comprising: a chimney having a first end and a second end opposite of the first end and an aperture that extends from the first end to the second end ; a flange disposed on the first end ; and at least one anti-rotation tab disposed on the second end near an edge of the second end ; a chimney having a first end and a second end opposite of the first end and an aperture that extends from the first end to the second end ; a flange disposed on the first end ; and at least one anti-rotation tab disposed on the second end near an edge of the second end ; a stud having a head and a shaft , the head being positioned in the exhaust sidewall liner and the shaft extending through the spacer ; and a fastener connected to the shaft to secure the exhaust sidewall liner to the static structure .
First scissor element for a scissor mechanism (Sa, Sb) for a seal having a lowerable sealing strip , wherein the scissor mechanism (Sa, Sb) has a first scissor element and a second scissor element swivel-mounted on each other, wherein the first scissor element has a first section and a second section , wherein the first scissor element has a bearing for the second scissor element between the two sections of the first scissor element , characterised in that the first section forms a frame with an opening which can be used for guiding the first section , and in that the second section is a rod or is rod-shaped. the first section forms a frame with an opening which can be used for guiding the first section , and in that the second section is a rod or is rod-shaped.
A pressure regulator comprising: a housing including an inlet flow passage and an outlet flow passage ; a plunger reciprocally mounted in the housing and including a plunger flow passage ; and a valve seat positioned between the inlet flow passage and an inlet to the flow passage of the plunger, wherein the valve seat is configured to receive and abut the inlet to the flow passage of the plunger; an axis of the inlet flow passage is offset from an axis of the valve seat, and characterised in that the valve seat is fixed to the housing and the axis of the inlet flow passage intersects the valve seat . a housing including an inlet flow passage and an outlet flow passage ; a plunger reciprocally mounted in the housing and including a plunger flow passage ; and a valve seat positioned between the inlet flow passage and an inlet to the flow passage of the plunger, wherein the valve seat is configured to receive and abut the inlet to the flow passage of the plunger; an axis of the inlet flow passage is offset from an axis of the valve seat, and characterised in that the valve seat is fixed to the housing and the axis of the inlet flow passage intersects the valve seat .
A method of applying simulated bricks to a wall surface, the method comprising: providing at least first and second simulated bricks , each comprising a brick profile portion having first and second lateral sides extending to a planar outer surface to define a first thickness, and an offset portion extending from the first lateral side of the brick profile portion to a lateral end surface and having an outer surface defining a second thickness smaller than the first thickness, the brick profile portion and the offset portion together defining a planar rectangular base surface extending from the second lateral side of the brick profile portion to the lateral end surface of the offset portion; applying an adhesive layer to the wall surface; adhering the base surface of the first simulated brick to the adhesive layer; adhering the base surface of the second simulated brick to the adhesive layer such that at least a portion of the lateral end surface of the offset portion of the second simulated brick abuts the second lateral side of the brick profile portion of the first simulated brick; and applying a grout material to the outer surface of the offset portion of the second simulated brick, characterized in that the first and second simulated bricks each comprise a polymeric core member , a mesh layer adhered to the core member, a basecoat layer covering an entirety of the mesh layer, and a polymeric finish layer covering an entirety of the basecoat layer, wherein the core member, the mesh layer, the basecoat layer, and the finish layer together define the brick profile portion and the offset portion . providing at least first and second simulated bricks , each comprising a brick profile portion having first and second lateral sides extending to a planar outer surface to define a first thickness, and an offset portion extending from the first lateral side of the brick profile portion to a lateral end surface and having an outer surface defining a second thickness smaller than the first thickness, the brick profile portion and the offset portion together defining a planar rectangular base surface extending from the second lateral side of the brick profile portion to the lateral end surface of the offset portion; applying an adhesive layer to the wall surface; adhering the base surface of the first simulated brick to the adhesive layer; adhering the base surface of the second simulated brick to the adhesive layer such that at least a portion of the lateral end surface of the offset portion of the second simulated brick abuts the second lateral side of the brick profile portion of the first simulated brick; and applying a grout material to the outer surface of the offset portion of the second simulated brick, characterized in that the first and second simulated bricks each comprise a polymeric core member , a mesh layer adhered to the core member, a basecoat layer covering an entirety of the mesh layer, and a polymeric finish layer covering an entirety of the basecoat layer, wherein the core member, the mesh layer, the basecoat layer, and the finish layer together define the brick profile portion and the offset portion .
A method of storing images of a scene, the method comprising: receiving an image of a scene ; generating at least one image identifier of the image, the at least one image identifier being indicative of the content of the image; storing the at least one image identifier of the image in association with temporal information for that image in a first storage ; determining a degree of similarity between the content of the image and previous images which have been received based on a correspondence between the at least one image identifier of the image and the at least one images identifiers of the previous images in the first storage; storing the at least one image identifier of subsequently received images in a second storage (1002a, 1 100b) in association with temporal information corresponding to a first previous image when the determined degree of similarity between the image and the first previous image exceeds a predetermined threshold; determining the degree of similarity between the subsequently received images in the second storage and the previous images which have been received in the first storage based on a correspondence between the at least one image identifier of the subsequently received images and the at least one image identifiers of the previous images; and transferring the subsequently received images stored in the second storage to the first storage, in association with the temporal information of the first previous image, when the determined degree of similarity between the at least one subsequently received images and a second previous image exceeds a predetermined threshold. receiving an image of a scene ; generating at least one image identifier of the image, the at least one image identifier being indicative of the content of the image; storing the at least one image identifier of the image in association with temporal information for that image in a first storage ; determining a degree of similarity between the content of the image and previous images which have been received based on a correspondence between the at least one image identifier of the image and the at least one images identifiers of the previous images in the first storage; storing the at least one image identifier of subsequently received images in a second storage (1002a, 1 100b) in association with temporal information corresponding to a first previous image when the determined degree of similarity between the image and the first previous image exceeds a predetermined threshold; determining the degree of similarity between the subsequently received images in the second storage and the previous images which have been received in the first storage based on a correspondence between the at least one image identifier of the subsequently received images and the at least one image identifiers of the previous images; and transferring the subsequently received images stored in the second storage to the first storage, in association with the temporal information of the first previous image, when the determined degree of similarity between the at least one subsequently received images and a second previous image exceeds a predetermined threshold.
A coasting clutch comprising; - mutually facing first and second clutch members ; wherein the coasting clutch is arranged to operate in an engaged position (e) wherein the first and second clutch members are axially in mesh and rotating with the same speed, or overrunning and rotating with different speeds, characterized in that the coasting clutch further comprises coasting means arranged to operate the coasting clutch into a coasting position (c) when the clutch is overrunning, and wherein the coasting position (c), the first and second clutch members are axially arranged further from each other than in the engaged position (e), wherein the coasting means is arranged to screw the second clutch member , in the rotational direction of the first clutch member , into the coasting position (c) when the clutch is overrunning. - mutually facing first and second clutch members ;
A method of wireless communication for reducing hand over signaling at an evolved Node B, eNB, comprising: forming a set of connected cells, each cell having a corresponding coverage area; preserving a state of a user equipment, UE, in an anchor eNB, wherein the anchor eNB is one of the set of connected cells, wherein the UE is in a connected mode; maintaining the state of the UE in the anchor eNB, when the UE moves from a coverage area of the anchor eNB to a coverage area of another one of the cells from the set of connected cells; characterized by : receiving a data packet at the anchor eNB; and forwarding the data packet to each of the cells in the set of connected cells in order to transmit the data packet to the UE. forming a set of connected cells, each cell having a corresponding coverage area; preserving a state of a user equipment, UE, in an anchor eNB, wherein the anchor eNB is one of the set of connected cells, wherein the UE is in a connected mode; maintaining the state of the UE in the anchor eNB, when the UE moves from a coverage area of the anchor eNB to a coverage area of another one of the cells from the set of connected cells; characterized by : receiving a data packet at the anchor eNB; and forwarding the data packet to each of the cells in the set of connected cells in order to transmit the data packet to the UE. receiving a data packet at the anchor eNB; and forwarding the data packet to each of the cells in the set of connected cells in order to transmit the data packet to the UE.
A drop-on-demand printing method comprising performing the following steps in a printing head: - discharging a first primary drop (x21A) of a first liquid having a first electric charge to move along a first path (pA); - discharging a second primary drop (x21B) of a second liquid having a second electric charge which is opposite to the first charge to move along a second path (pB); characterised in that the method further comprising the following step: - the first charge and the second charge are selected such that the paths (pA, pB) join each other at a connection point (x32) due to the fact that the primary drops (x21A, x21B) are charged with opposite charges and attract each other in flight, so as to combine to form a combined drop (x22) at the connection point (x32) before reaching the printed surface . - discharging a first primary drop (x21A) of a first liquid having a first electric charge to move along a first path (pA); - discharging a second primary drop (x21B) of a second liquid having a second electric charge which is opposite to the first charge to move along a second path (pB); - the first charge and the second charge are selected such that the paths (pA, pB) join each other at a connection point (x32) due to the fact that the primary drops (x21A, x21B) are charged with opposite charges and attract each other in flight, so as to combine to form a combined drop (x22) at the connection point (x32) before reaching the printed surface .
A method for suppressing electromagnetic interference at a critical sensor situated within a system having a plurality of wireless transmission-capable nodes , the method comprising: three-dimensionally mapping the system ; estimating phase shifts for transmissions from the nodes to produce net destructive interference at the critical sensor , based on the three-dimensional mapping of the system ; sensing aggregate electromagnetic signal from the nodes at the critical sensor ; and adjusting the phase shifts based on the sensed aggregate electromagnetic signal. three-dimensionally mapping the system ; estimating phase shifts for transmissions from the nodes to produce net destructive interference at the critical sensor , based on the three-dimensional mapping of the system ; sensing aggregate electromagnetic signal from the nodes at the critical sensor ; and adjusting the phase shifts based on the sensed aggregate electromagnetic signal.
A cargo securing apparatus comprising: at least one sensor arranged to measure tension in at least one tensile element; and a processor in data communication with the at least one sensor configured to receive tension measurements from the at least one sensor , wherein the processor is configured to compare the tension measurements from the at least one sensor to a user configured value associated with the at least one tensile element and to determine tension correction parameters required to maintain tension in the at least one tensile element within a range of the user configured value associated with the at least one tensile element, wherein the processor is configured to determine an alarm condition based on the tension correction parameters, the alarm condition being determined when the tension measured in the at least one tensile element by the at least one sensor does not correspond to the user configured value associated with the at least one tensile element or when the tension measured in the at least one tensile element by the at least one sensor falls outside the range of the user configured value associated with the at least one tensile element, and characterised in that the at least one sensor measures at least first and second tensions in the at least one tensile element at different times, the processor is configured to distinguish between acute deviations in tension and sustained deviations in tension based on the first and second tension measurements, and wherein the processor redetermines the alarm condition based on the distinction between the acute and sustained deviations in tension.