mhurhangee/patent-ind-claim-en huggingface dataset:
Axial piston pump having several pistons , having a magnetic encoder arranged on a swash plate , and a magnetic field sensor which is arranged in such a way that it faces towards the magnetic encoder , characterised in that the magnetic encoder has at least two permanent magnets and a plate , which consists of a ferromagnetic material, wherein the permanent magnets are arranged on the plate in such a way that they each faces a magnetic pole towards the plate , and this pole is at least partially covered by the plate in each case.
An end trimmer assembly for edgebanding machines to edgeband panels made of wood or the like, each panel being delimited by a first side face and by a second side face , which is orthogonal to the first side face and is provided with a finishing edge having at least one end portion projecting from the first side face in a first direction , which is orthogonal to the first side face ; the end trimmer assembly comprising at least one cutting device comprising a cutting blade , which is mounted so as to rotate around a rotation axis and to cut at least part of the end portion ; a copy attachment , which is designed to be arranged in contact, in use, with the first side face ; and an operating device to move the cutting blade and the copy attachment relative to one another in a second direction , which is parallel to the rotation axis of the cutting blade ; and being characterized in that it further comprises a limit stop device , which can be adjusted so as to stop the cutting blade in the second direction , and an actuating device to adjust the position of the limit stop device and stop the cutting blade in a first operating position, in which the cutting blade substantially separates the entire end portion from the finishing edge , or in a second operating position, in which the cutting blade only separates part of the end portion from the finishing edge .
A method of fabricating a semiconductor device, comprising, in order, steps of introducing first-conductivity-type dopants into first regions on a first face of a semiconductor wafer ; introducing second-conductivity-type dopants into second regions on said first face ; forming a silicon dioxide protective layer on said first face ; attaching a first handle wafer to said protective layer on said first face by placing an extremely flat surface of said first handle wafer and an extremely flat surface of said protective layer together at a medium temperature of 400°C, to form a weak bond, and then placing the wafers in a furnace for two hours at 1100°C, to cause said first handle wafer to bond directly to said protective layer , said first handle wafer being formed of silicon; introducing first-conductivity-type dopants into third regions on a second face of said semiconductor wafer which is parallel to said first face ; introducing second-conductivity-type dopants into fourth regions on said second face ; performing a high-temperature diffusion step at a temperature above 600°C, whereby said diffusion step diffuses the first-conductivity-type dopants and the second-conductivity-type dopants to desired depths, from both said first and second faces , into said semiconductor wafer ; performing medium-temperature fabrication steps on said second face ; attaching, using an adhesive layer , a second handle wafer to said second face ; removing said first handle wafer ; and performing medium-temperature fabrication steps on said first face . introducing first-conductivity-type dopants into first regions on a first face of a semiconductor wafer ; introducing second-conductivity-type dopants into second regions on said first face ; forming a silicon dioxide protective layer on said first face ; attaching a first handle wafer to said protective layer on said first face by placing an extremely flat surface of said first handle wafer and an extremely flat surface of said protective layer together at a medium temperature of 400°C, to form a weak bond, and then placing the wafers in a furnace for two hours at 1100°C, to cause said first handle wafer to bond directly to said protective layer , said first handle wafer being formed of silicon; introducing first-conductivity-type dopants into third regions on a second face of said semiconductor wafer which is parallel to said first face ; introducing second-conductivity-type dopants into fourth regions on said second face ; performing a high-temperature diffusion step at a temperature above 600°C, whereby said diffusion step diffuses the first-conductivity-type dopants and the second-conductivity-type dopants to desired depths, from both said first and second faces , into said semiconductor wafer ; performing medium-temperature fabrication steps on said second face ; attaching, using an adhesive layer , a second handle wafer to said second face ; removing said first handle wafer ; and performing medium-temperature fabrication steps on said first face .
An automatic drain system, comprising: a drain including a neck defining a drain orifice and a flange extending from the neck; and a liquid detection sensor located on at least one of the neck or the flange; a valve downstream of the drain; an electromechanical actuator configured to translate the valve between an open position and a closed position; and a controller operably coupled to the liquid detection sensor; characterised in that : the liquid detection sensor comprises: a first conductor electrically coupled to a positive terminal (P+) of a first portion of a circuit located in the controller ; and a second conductor electrically isolated from the first conductor and electrically coupled to a negative terminal (P-) of a second portion of the circuit ; wherein the controller is configured to detect whether current is flowing through the circuit . a drain including a neck defining a drain orifice and a flange extending from the neck; and a liquid detection sensor located on at least one of the neck or the flange; a valve downstream of the drain; an electromechanical actuator configured to translate the valve between an open position and a closed position; and a controller operably coupled to the liquid detection sensor; characterised in that : the liquid detection sensor comprises: a first conductor electrically coupled to a positive terminal (P+) of a first portion of a circuit located in the controller ; and a second conductor electrically isolated from the first conductor and electrically coupled to a negative terminal (P-) of a second portion of the circuit ; wherein the controller is configured to detect whether current is flowing through the circuit . the liquid detection sensor comprises: a first conductor electrically coupled to a positive terminal (P+) of a first portion of a circuit located in the controller ; and a second conductor electrically isolated from the first conductor and electrically coupled to a negative terminal (P-) of a second portion of the circuit ; a first conductor electrically coupled to a positive terminal (P+) of a first portion of a circuit located in the controller ; and a second conductor electrically isolated from the first conductor and electrically coupled to a negative terminal (P-) of a second portion of the circuit ; wherein the controller is configured to detect whether current is flowing through the circuit .
A method for controlling a terminal to acquire a multimedia data stream from a target camera device, wherein the terminal comprises a processing component connected to a communication component and a multimedia component including a touch screen, the method comprising the steps of: acquiring a list of smart devices when an application for managing smart devices is started; determining triggering of a preset triggering event if the target camera device exists in the list of smart devices and the target camera device is indicated to be in an on-line state; establishing a socket connection to the target camera device, using the communication component, when the preset trigger event is triggered; sending a command to the target camera device to transfer the multimedia data stream through the socket connection if an event of starting preview is detected, by the multimedia component , in response to user selection; receiving the multimedia data stream transferred from the target camera device at the terminal and displaying the multimedia data stream in a specified preview interface; keeping the socket connection before an application for managing smart devices is closed; and disconnecting the socket connection from the target camera device when the application for managing smart devices is closed.
A guide body for a seal section within a downhole pumping system , wherein the seal section includes an upper fluid compensation section , a lower fluid compensation section and a shaft extending through the upper and lower fluid compensation sections and guide body , wherein the guide body comprises an externally manipulatable configuration selection mechanism to selectively place the upper fluid compensation section in either a series or parallel configuration with the lower fluid compensation section , wherein the configuration selection mechanism comprises: a plurality of passages extending from the upper fluid compensation section to the lower fluid compensation section ; characterized by one or more plugs , wherein each of the one or more plugs is installed within a corresponding one of the plurality of passages , further characterized in that said plurality of passages comprising a first set of selector passages ; a second set of selector passages ; and in that said one or more plugs are externally accessible plugs, wherein the one or more plugs control the flow of fluid through the first and second selector passages. a plurality of passages extending from the upper fluid compensation section to the lower fluid compensation section ; characterized by one or more plugs , wherein each of the one or more plugs is installed within a corresponding one of the plurality of passages , further characterized in that said plurality of passages comprising a first set of selector passages ; a second set of selector passages ; and in that said one or more plugs are externally accessible plugs, wherein the one or more plugs control the flow of fluid through the first and second selector passages.
Fluid line for conducting a fluid, comprising: an external layer , which comprises a crosslinked chlorinated polyethylene (CPE); a reinforcement support , which is arranged within the external layer , and a barrier layer , which is arranged within the reinforcement support and delimits a line interior of the fluid line for conducting the fluid, wherein the barrier layer is configured to reduce a diffusion of the fluid through the barrier layer , wherein the barrier layer comprises an aminically crosslinked ethylene-acrylate rubber (AEM) and/or an aminically crosslinked polyacrylate rubber (ACM), or alternatively comprises a peroxidically crosslinked ethylene-acrylate rubber (AEM) and/or a peroxidically crosslinked polyacrylate rubber (ACM), wherein the aminically crosslinked ethylene-acrylate rubber (AEM) and/or the aminically crosslinked polyacrylate rubber (ACM) comprises a diamine and a basic activator, and wherein the peroxidically crosslinked ethylene-acrylate rubber (AEM) and/or the peroxidically crosslinked polyacrylate rubber (ACM) comprises a peroxide derivative, a co-activator, and/or an acid acceptor. an external layer , which comprises a crosslinked chlorinated polyethylene (CPE); a reinforcement support , which is arranged within the external layer , and a barrier layer , which is arranged within the reinforcement support and delimits a line interior of the fluid line for conducting the fluid, wherein the barrier layer is configured to reduce a diffusion of the fluid through the barrier layer , wherein the barrier layer comprises an aminically crosslinked ethylene-acrylate rubber (AEM) and/or an aminically crosslinked polyacrylate rubber (ACM), or alternatively comprises a peroxidically crosslinked ethylene-acrylate rubber (AEM) and/or a peroxidically crosslinked polyacrylate rubber (ACM), wherein the aminically crosslinked ethylene-acrylate rubber (AEM) and/or the aminically crosslinked polyacrylate rubber (ACM) comprises a diamine and a basic activator, and wherein the peroxidically crosslinked ethylene-acrylate rubber (AEM) and/or the peroxidically crosslinked polyacrylate rubber (ACM) comprises a peroxide derivative, a co-activator, and/or an acid acceptor.
Household refrigeration appliance with at least one storage unit and with at least one retaining unit , which has at least one vertical rail element and at least one retaining element connected to the rail element and retaining the storage unit , wherein the retaining element is supported on the rail element in such a manner that its height can be adjusted in an at least essentially vertical direction , wherein the retaining unit has a slide element , which is supported such that it can be moved in a guided manner along the rail element , wherein the slide element is connected to a fastening element of the retaining unit , characterised in that the fastening element is pushed into the retaining element laterally and wherein the retaining element is embodied as a rectangular retaining strip.
A synchronous running safeguard for transfer stations for devices for handling containers, especially for handling bottle-like containers made of glass or plastic with a first and a second rotary element , each of which is provided with receiving elements for the containers and in each case including a motor drive, wherein the rotary elements are arranged relative to one another so that the containers in a transfer region can be transferred from one of the first receiving elements to one of the second receiving elements , characterised in that - the rotary elements in each case rotationally connected comprise a control element with engagement elements , that the control elements are in meshing engagement with one another, wherein the control elements are arranged so that during operation they are in engagement without contact during the rotary movement of the rotary elements and in that they are in engagement with contact in the event of a fault. - the rotary elements in each case rotationally connected comprise a control element with engagement elements , that the control elements are in meshing engagement with one another, wherein the control elements are arranged so that during operation they are in engagement without contact during the rotary movement of the rotary elements and in that they are in engagement with contact in the event of a fault.
Receiving adapter for holding a replaceable fluid container with an inseparably integrated pump unit in a fluid dispenser with lever mechanism not intended for this purpose, which is intended to accommodate a standard fluid container , wherein the receiving adapter comprises a tilting holder with a fastening section and a holding section , wherein the fastening section is designed to be inserted into a receptacle of a housing of the fluid dispenser in a positive-locking manner and wherein the holding section is designed to hold a section of the fluid container , and wherein the receiving adapter furthermore comprises a rigid pressure lever which has a fixation section and an actuation section , wherein the fixation section is designed to be connected in positive-locking manner to a lever mechanism of a fluid dispenser and wherein the actuation section is designed to direct a force acting on the fixation section to a pump head of a pump unit . wherein the receiving adapter comprises a tilting holder with a fastening section and a holding section , wherein the fastening section is designed to be inserted into a receptacle of a housing of the fluid dispenser in a positive-locking manner and wherein the holding section is designed to hold a section of the fluid container , and wherein the receiving adapter furthermore comprises a rigid pressure lever which has a fixation section and an actuation section , wherein the fixation section is designed to be connected in positive-locking manner to a lever mechanism of a fluid dispenser and wherein the actuation section is designed to direct a force acting on the fixation section to a pump head of a pump unit .
A liquid crystal display driving circuit comprising a timing control circuit , at least one first source driving circuit , at least one second source driving circuit , and a polarity inversion circuit , wherein, the timing control circuit is connected with the polarity inversion circuit , and configured to transmit a polarity inversion signal (F) to the polarity inversion circuit , the polarity inversion circuit is further connected with the at least one first source driving circuit and at least one second source driving circuit , and configured to convert the polarity inversion signal (F) into a first polarity inversion signal (POL1) and a second polarity inversion signal (POL2), wherein the first polarity inversion signal (POL1) and the second polarity inversion signal (POL2) have a phase difference of 180°, and the at least one first source driving circuit and at least one second source driving circuit is configured to receive the first polarity inversion signal (POL1) and the second polarity inversion signal (POL2), respectively, so that voltages of source signals driven by the at least one first source driving circuit and at least one second source driving circuit have opposite polarities with each other; characterized in that the polarity inversion circuit comprises two divider resistors pairs (R11/R12 and R21/R22), a first polarity inversion control circuit for outputting the first polarity inversion signal (POL1) according to the polarity inversion signal (F) and a first control signal (V1), and a second polarity inversion control circuit for outputting the second polarity inversion signal (POL2) according to the polarity inversion signal (F) and a second control signal (V2), wherein the first control signal (V1) is different from the second control signal (V2) and each of the first control signal (V1) and the second control signal (V2) is obtained by adjusting the divider resistors, respectively.
A sole mold (200; 300) for manufacturing a sole from a plurality of particles comprising: a. at least one first opening for supplying the particles ; b. at least two second openings for supplying a gaseous and/or liquid medium to bond and / or fuse the particles together; c. wherein at least a portion of the sole mold (200; 300) comprising the at least two second openings is manufactured by an additive manufacturing method and is adapted to reduce a heat capacity of the sole mold (200; 300); and d. wherein up to 50 %, preferably up to 60 % and more preferably up to 70 % of the surface of the sole mold (200; 300) is provided with the at least two second openings for a homogenous distribution of an inflow of the gaseous and/or liquid medium, and as a result to achieve a uniform supplying of the gaseous and/or liquid medium so that the particles of the sole are uniformly interconnected. a. at least one first opening for supplying the particles ; b. at least two second openings for supplying a gaseous and/or liquid medium to bond and / or fuse the particles together; c. wherein at least a portion of the sole mold (200; 300) comprising the at least two second openings is manufactured by an additive manufacturing method and is adapted to reduce a heat capacity of the sole mold (200; 300); and d. wherein up to 50 %, preferably up to 60 % and more preferably up to 70 % of the surface of the sole mold (200; 300) is provided with the at least two second openings for a homogenous distribution of an inflow of the gaseous and/or liquid medium, and as a result to achieve a uniform supplying of the gaseous and/or liquid medium so that the particles of the sole are uniformly interconnected.
Optical layer made from a light-permeable material including a surface and an optical microstructure having a plurality of elevations , wherein the plurality of elevations of the optical microstructure protrude from a reference plane which is parallel to the surface , wherein the optical layer being configured as a flexible film and wherein the plurality of elevations of the optical microstructure each have a flank section which adjoins the reference plane and forms a uniform angle (a) with the reference plane , wherein the uniform angle (a) is in a range from about 10° to about 26° or in a range from about 13° to 23° or in a range from about 15° to 20°, wherein the plurality of elevations of the optical microstructure have a rounded peak , wherein the rounded peaks of the plurality of elevations each adjoin the flank sections , and wherein the flank sections of the elevations are formed straight from the side.
Expansible fixing plug having a fixing plug sleeve which extends in an axial direction along a longitudinal axis (L) and has a receiving space which is open at the end of the fixing plug sleeve that is at the rear in the direction of introduction (E) so that a threaded element can be inserted into the receiving space in the direction of introduction (E), wherein the fixing plug sleeve has at least one first expansion rib which delimits the receiving space in the radial direction (r) and on which there is arranged at least one expansion element , the expansion element having a holding element for holding the fixing plug sleeve in a drilled hole and a locking element which projects into the receiving space for engagement in a thread of a threaded element , wherein the locking element and the holding element consist of one or more parts and the expansion element as a whole is tiltable with respect to the longitudinal axis (L) about a tilt axis (K) which lies substantially in a radial plane relative to the longitudinal axis (L), characterised in that the locking element is spaced a smaller distance from the rear end of the fixing plug sleeve than is the holding element .
Protector for the male or female end of a threaded tubular connection for drilling or operating hydrocarbon wells, comprising a principal body , a first sealing gasket formed from a material which is less rigid than the material of the protector body and intended to make a seal with a surface of an end of the component, the principal body comprising a plurality of orifices through which the sealing gasket passes and characterized in that the principal body comprises a plurality of bores into which a plurality of orifices open.
A method for manufacturing a hot gas path component of a turbine , the method comprising the following steps: forming cooling channels in a surface of a member of said hot gas path component ; further drilling cooling holes in the member; then disposing a layer on the surface of the member to enclose the cooling channels , the layer being disposed on a portion of the member to be cooled; and bonding the layer to the surface , wherein bonding comprises disposing a braze filler metal between the layer and the surface and heating the layer , the member and the braze filler metal to a selected temperature. forming cooling channels in a surface of a member of said hot gas path component ; further drilling cooling holes in the member; then disposing a layer on the surface of the member to enclose the cooling channels , the layer being disposed on a portion of the member to be cooled; and bonding the layer to the surface , wherein bonding comprises disposing a braze filler metal between the layer and the surface and heating the layer , the member and the braze filler metal to a selected temperature.