mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid ejecting unit comprising: a liquid ejecting head configured to eject a liquid; a flow channel member configured to be attached to and removed from the liquid ejecting head and to supply the liquid to the liquid ejecting head; and an electric coupling member (U1, U2) configured to be attached to and removed from the liquid ejecting head and to supply a signal to the liquid ejecting head, wherein the electric coupling member has a first electric coupling portion (C1), the liquid ejecting head has a second electric coupling portion (C2), one of the first electric coupling portion and the second electric coupling portion is a convex connector, the other of the first electric coupling portion and the second electric coupling portion is a concave connector, when the electric coupling member is attached to the liquid ejecting head, the convex connector is inserted into the concave connector and terminals of the first electric coupling portion and the second electric coupling portion are electrically coupled to each other, the convex connector is extracted from the concave connector by removing the electric coupling member from the liquid ejecting head in a removal direction, the flow channel member restricts the electric coupling member from moving in the removal direction (Z), and the electric coupling member (U1, U2) is located between the flow channel member and the liquid ejecting head in the removal direction. a liquid ejecting head configured to eject a liquid; a flow channel member configured to be attached to and removed from the liquid ejecting head and to supply the liquid to the liquid ejecting head; and an electric coupling member (U1, U2) configured to be attached to and removed from the liquid ejecting head and to supply a signal to the liquid ejecting head, wherein the electric coupling member has a first electric coupling portion (C1), the liquid ejecting head has a second electric coupling portion (C2), one of the first electric coupling portion and the second electric coupling portion is a convex connector, the other of the first electric coupling portion and the second electric coupling portion is a concave connector, when the electric coupling member is attached to the liquid ejecting head, the convex connector is inserted into the concave connector and terminals of the first electric coupling portion and the second electric coupling portion are electrically coupled to each other, the convex connector is extracted from the concave connector by removing the electric coupling member from the liquid ejecting head in a removal direction, the flow channel member restricts the electric coupling member from moving in the removal direction (Z), and the electric coupling member (U1, U2) is located between the flow channel member and the liquid ejecting head in the removal direction.
A wind turbine blade maintenance arrangement, comprising a main frame ; a roller frame ; at least one cleaning and/or painting means supporting frame ; a linear movement rail , comprising the longitudinally extending base surface , two longitudinally-extending walls , being perpendicular to the base surface ; a joint , providing for at least one degree of freedom; at least two rollers mounted on the roller frame and configured to allow secure pushing of the arrangement of the cleaning robot against an edge of the wind turbine blade, and moving the maintenance arrangement along the edge of the blade; he cleaning and/or painting means , mounted on the cleaning and/or painting means supporting frame ; the cleaning and/or painting means supporting frame or frames are adjustably connected to the roller frame so as to allow controllable adjustment of the distance between the cleaning and/or painting means , and the surfaces of the wind turbine; characterised in that : - the main frame and the roller frame are adjustably connected together via the linear movement rail and the joint ; - the linear movement rail is designed to allow movement of the roller frame in a substantially horizontal direction in respect to the main frame ; - the joint is designed to allow controllable rotational movement of the roller frame in respect to the linear movement rail , wherein the rotational axis of the revolute joint is substantially perpendicular to the base surface of the linear movement rail . - the main frame and the roller frame are adjustably connected together via the linear movement rail and the joint ; - the linear movement rail is designed to allow movement of the roller frame in a substantially horizontal direction in respect to the main frame ; - the joint is designed to allow controllable rotational movement of the roller frame in respect to the linear movement rail , wherein the rotational axis of the revolute joint is substantially perpendicular to the base surface of the linear movement rail .
A performance evaluation method for elastic material including rubber or elastomer, the method comprising: a step of applying a strain to a test piece made of the elastic material to form at least one void inside the test piece ; a step of obtaining projected images of the test piece by irradiating the test piece with X-rays at a plurality of times after the at least one void is formed; and a step of obtaining a volume change of the at least one void between the plurality of times based on the projected images, as an index of performance, characterised in that the plurality of times comprises a first time when a strain given to the test piece reaches a predetermined first threshold value, and a second time after a predetermined time has elapsed from the first time, and wherein the strain applied to the test piece is maintained at the first threshold value during the time period that a plurality of projected images is obtained. a step of applying a strain to a test piece made of the elastic material to form at least one void inside the test piece ; a step of obtaining projected images of the test piece by irradiating the test piece with X-rays at a plurality of times after the at least one void is formed; and a step of obtaining a volume change of the at least one void between the plurality of times based on the projected images, as an index of performance, characterised in that the plurality of times comprises a first time when a strain given to the test piece reaches a predetermined first threshold value, and a second time after a predetermined time has elapsed from the first time, and wherein the strain applied to the test piece is maintained at the first threshold value during the time period that a plurality of projected images is obtained.
A camera lens module, comprising a first lens , a second lens , a third lens , a fourth lens and a fifth lens , wherein the first to fifth lenses are sequentially disposed from an object side to an image side, wherein the first lens has a positive refractive power, the second lens has a negative refractive power, the third lens has a positive refractive power, the fourth lens has a positive refractive power, and the fifth lens has a negative refractive power, wherein an object side surface of the third lens comprises a convex surface, wherein an image side surface of the third lens comprises a concave surface, wherein the first lens is movable along an optical axis to perform a zooming operation, and wherein an Abbe number V1, V4, V5 of the first lens , and the fourth lens and the fifth lens satisfies the following Conditional expression, respectively: 50 < V1, V4, V5 < 60, characterized in that an Abbe number V3 of the third lens satisfies the following Conditional expression: 50<V3<60 and that only the first lens is movable along the optical axis during performance of the zooming operation. wherein the first to fifth lenses are sequentially disposed from an object side to an image side, wherein the first lens has a positive refractive power, the second lens has a negative refractive power, the third lens has a positive refractive power, the fourth lens has a positive refractive power, and the fifth lens has a negative refractive power, wherein an object side surface of the third lens comprises a convex surface, wherein an image side surface of the third lens comprises a concave surface, wherein the first lens is movable along an optical axis to perform a zooming operation, and wherein an Abbe number V1, V4, V5 of the first lens , and the fourth lens and the fifth lens satisfies the following Conditional expression, respectively: 50 < V1, V4, V5 < 60, characterized in that an Abbe number V3 of the third lens satisfies the following Conditional expression: 50<V3<60 and that only the first lens is movable along the optical axis during performance of the zooming operation.
A method for producing a chemical reactor device based on a fluid flow, the method comprising: - obtaining a substrate with a fluid channel defined by a channel wall, in which an ordered set of microfabricated silicon pillar structures is positioned in the fluid channel, - electrochemically anodising at least the silicon pillar structures to make the silicon pillar structures porous at least to a certain depth, - after anodising, performing thermal treatment and, after the thermal treatment, performing functionalisation of the substrate and pillar structures to condition at least a part of the silanol groups on the substrate and/or pillar structures, wherein the thermal treatment is being carried out at a temperature, with a duration and in an atmosphere such that any silicon oxide layer formed has a thickness of less than 20 nm. - obtaining a substrate with a fluid channel defined by a channel wall, in which an ordered set of microfabricated silicon pillar structures is positioned in the fluid channel, - electrochemically anodising at least the silicon pillar structures to make the silicon pillar structures porous at least to a certain depth, - after anodising, performing thermal treatment and, after the thermal treatment, performing functionalisation of the substrate and pillar structures to condition at least a part of the silanol groups on the substrate and/or pillar structures,
A method performed by a wireless terminal for installation of Building Automation, BA, devices in a building , the method comprising: by means of a localization application in the wireless terminal , determining (S1) a current location of the wireless terminal in the building; from a BA device database , obtaining (S2) an identifier for each of a plurality of the BA devices which should be installed in the vicinity of the determined (S1) location of the wireless terminal ; presenting (S3) a list of the obtained (S2) identifiers in a user interface of the wireless terminal ; after the presenting (S3), receiving (S4) input via the user interface ; and in response to the received (S4) input, associating (S5) at least a first of the plurality of BA devices with at least a second of the plurality of BA devices. by means of a localization application in the wireless terminal , determining (S1) a current location of the wireless terminal in the building; from a BA device database , obtaining (S2) an identifier for each of a plurality of the BA devices which should be installed in the vicinity of the determined (S1) location of the wireless terminal ; presenting (S3) a list of the obtained (S2) identifiers in a user interface of the wireless terminal ; after the presenting (S3), receiving (S4) input via the user interface ; and in response to the received (S4) input, associating (S5) at least a first of the plurality of BA devices with at least a second of the plurality of BA devices.
A circuitry for transmitting data to a receiver in a wireless local area network communication system, comprising: a candidate channel determination portion configured to determine a candidate channel list including at least two channels not being occupied by other devices or because of disturbances and being available for transmission at the circuitry; a transmitting portion configured to transmit a request packet including said candidate channel list via a channel in the candidate channel list; and a receiving portion configured to receive at least one response packet via at least one selected channel included in the candidate channel list from at least one receiver in response to the request packet, said at least one selected channel being available for reception at the at least one receiver; wherein, when the response packet is received via at least two selected channels, the transmitting portion is configured to transmit a data packet to the receiver via a combined channel corresponding to a combination of at least two contiguous or non-contiguous channels of the at least two selected channels. a candidate channel determination portion configured to determine a candidate channel list including at least two channels not being occupied by other devices or because of disturbances and being available for transmission at the circuitry; a transmitting portion configured to transmit a request packet including said candidate channel list via a channel in the candidate channel list; and a receiving portion configured to receive at least one response packet via at least one selected channel included in the candidate channel list from at least one receiver in response to the request packet, said at least one selected channel being available for reception at the at least one receiver; wherein, when the response packet is received via at least two selected channels, the transmitting portion is configured to transmit a data packet to the receiver via a combined channel corresponding to a combination of at least two contiguous or non-contiguous channels of the at least two selected channels.
Electropneumatic control module for an electronically controllable pneumatic brake system for a vehicle with a towing unit and a trailer , having: a pneumatic supply port which can be connected to a compressed air supply , a trailer control unit (TCV), which has a trailer control valve unit with one or more electropneumatic valves (RV, IV, OV), a trailer brake pressure port and a trailer supply port , a handbrake unit (EPH), which has a spring reservoir port for a spring reservoir for a towing unit and a handbrake valve unit having one or more electropneumatic valves , and an electronic control unit (ECU) for controlling the trailer control valve unit and the handbrake valve unit , wherein the trailer control unit (TCV) has a first relay valve which has a relay valve working input connected to the supply port , a relay valve output connected to the trailer brake pressure port , and a relay valve venting output , via which the relay valve output can be connected to a pressure sink , characterized in that the first relay valve has a single relay valve control input , which opens into a common control chamber , wherein the relay valve control input can be connected to the supply port and/or to a venting means by means of the trailer control valve unit in order to output an operating brake control pressure (P3) in the common control chamber in a controlled manner, and wherein in the case of a failure of the electropneumatic control module a redundancy pressure (PR) can be output to the common control chamber in a controlled manner, in order to output a brake pressure (P B ) at the trailer brake pressure port in a controlled manner. a pneumatic supply port which can be connected to a compressed air supply , a trailer control unit (TCV), which has a trailer control valve unit with one or more electropneumatic valves (RV, IV, OV), a trailer brake pressure port and a trailer supply port , a handbrake unit (EPH), which has a spring reservoir port for a spring reservoir for a towing unit and a handbrake valve unit having one or more electropneumatic valves , and an electronic control unit (ECU) for controlling the trailer control valve unit and the handbrake valve unit , wherein the trailer control unit (TCV) has a first relay valve which has a relay valve working input connected to the supply port , a relay valve output connected to the trailer brake pressure port , and a relay valve venting output , via which the relay valve output can be connected to a pressure sink , characterized in that the first relay valve has a single relay valve control input , which opens into a common control chamber , wherein the relay valve control input can be connected to the supply port and/or to a venting means by means of the trailer control valve unit in order to output an operating brake control pressure (P3) in the common control chamber in a controlled manner, and wherein in the case of a failure of the electropneumatic control module a redundancy pressure (PR) can be output to the common control chamber in a controlled manner, in order to output a brake pressure (P B ) at the trailer brake pressure port in a controlled manner.
A layered material part comprising: a front face and a back face opposite to each other; at least one tensile stress layer (TSL); at least one compression stress layer (CSL1, CSL2); at least one interface region (IR1, IR2) between the at least one tensile stress layer (TSL) and the at least one compression stress layer (CSL1, CSL2); and at least one cut face connecting the front face and the back face , wherein the cut face includes surface structures induced by a Bessel beam laser, the surface structures extending across the at least one interface region (IR1, IR2). a front face and a back face opposite to each other; at least one tensile stress layer (TSL); at least one compression stress layer (CSL1, CSL2); at least one interface region (IR1, IR2) between the at least one tensile stress layer (TSL) and the at least one compression stress layer (CSL1, CSL2); and at least one cut face connecting the front face and the back face , wherein the cut face includes surface structures induced by a Bessel beam laser, the surface structures extending across the at least one interface region (IR1, IR2).
Aluminum alloy heat exchanger extruded tubes comprising an aluminum alloy composition consisting of, in weight percent, between 0.90 and 1.30 manganese, between 0.05 and 0.25 iron, between 0.05 and 0.25 silicon, between 0.01 and 0.02 titanium, less than 0.01 copper, less than 0.01 nickel, less than 0.05 magnesium, and the balance being aluminum and incidental impurities, wherein the incidental impurities have a total content of less than 0.15 and each impurity has a content of less than 0.05, wherein the aluminum alloy is cast as an ingot and homogenized, for two to eight hours, at a homogenization temperature ranging between 550 and 600°C in an homogenized ingot before extruding the homogenized ingot into tubes; wherein the homogenized ingot has an ingot conductivity of 35 to 38 International Annealed Copper Standard (IACS); and wherein the number density of Mn dispersoids having a diameter of a circle with the same area as the particle d circ less than 0.5 microns in a square millimeter area is 18 x10 4 to 41x10 4 .
Optical device comprising at least one glass or polymer area (15/1), whereby an active matrix is located in contact with the at least one glass or polymer area (15/1), the optical device comprises a power supply system, wherein the power supply system is located within a space whose limitations are represented by a first, a second, a third and a fourth auxiliary-plane, where the first auxiliary-plane is arranged on top and approximately parallel to the at least one glass or polymer area (15/1), the second auxiliary-plane is arranged approximately parallel and in a distance L' of less than 10 cm from the first auxiliary-plane , and the third auxiliary-plane and the fourth auxiliary-plane are arranged approximately perpendicular to the main extension direction of the at least one glass or polymer area (15/1), where the third auxiliary-plane is positioned on the right side of a side of the at least one glass or polymer area (15/1) and has a distance of less than 21 cm from this side of the at least one glass or polymer area (15/1), and where the fourth auxiliary-plane is positioned on the left side of this side of the at least one glass or polymer area (15/1) and has a distance of less than 21 cm from this side of the at least one glass or polymer area (15/1), whereby the power supply system comprises at least a controller and at least one energy storing device, preferably a battery , characterised in that the optical device comprises at least one photovoltaic element , whereby the at least one photovoltaic element is arranged approximately perpendicular to the main extension area of the at least one glass or polymer area (15/1) and wherein the at least one photovoltaic element is placed on or in direct physical contact to a spacer .
A method of manufacturing a jaw of an end effector of a surgical instrument , the method comprising: (a) providing a jaw that includes a U-shaped body portion , wherein the U-shaped body portion includes a bottom wall interposed between first and second opposing side walls ; (b) forming at least one feature into at least one of the first and second side walls , wherein the at least one feature comprises a first proximal aperture in the first side wall and a second proximal aperture in the second side wall and the at least one feature has a near net shape, and (c) subsequently machining the at least one feature to have a machined shape; wherein only distal portions of the first and second proximal apertures are machined such that the remainder of the first and second proximal apertures are not machined; and wherein non-machined portions of the jaw have a first surface finish and machined portions of the jaw have a second surface finish, wherein the second surface finish is finer than the first surface finish. (a) providing a jaw that includes a U-shaped body portion , wherein the U-shaped body portion includes a bottom wall interposed between first and second opposing side walls ; (b) forming at least one feature into at least one of the first and second side walls , wherein the at least one feature comprises a first proximal aperture in the first side wall and a second proximal aperture in the second side wall and the at least one feature has a near net shape, and (c) subsequently machining the at least one feature to have a machined shape; wherein only distal portions of the first and second proximal apertures are machined such that the remainder of the first and second proximal apertures are not machined; and wherein non-machined portions of the jaw have a first surface finish and machined portions of the jaw have a second surface finish, wherein the second surface finish is finer than the first surface finish.
A digitizer device comprising: an elongated body ; legs connected to the elongated body, wherein each leg has a single free end that is pointy shaped, and wherein the free ends of the legs face each other; at least one joint between the legs and the elongated body such that free ends of the legs are displaceable relative to one another; and an inertial sensor unit connected to the elongated body, the inertial sensor unit having a preset orientation aligned with the elongated body. an elongated body ; legs connected to the elongated body, wherein each leg has a single free end that is pointy shaped, and wherein the free ends of the legs face each other; at least one joint between the legs and the elongated body such that free ends of the legs are displaceable relative to one another; and an inertial sensor unit connected to the elongated body, the inertial sensor unit having a preset orientation aligned with the elongated body.