mhurhangee/ep-ind-claims huggingface dataset:
A video or graphical display device designed and configured to abut to a like video or graphical display device and to be operatively connected to the like video or graphical display device via a connector so as to form a display mosaic, the video or graphical display device comprising: a body having a front side, a backside, and a periphery, wherein, the front side includes a display element; the backside is designed and configured to confront a support structure; the periphery is designed and configured to conformally abut a periphery of the like video or graphical display device; and a plurality of recessed receptacles each formed in a corresponding recess in the backside along the periphery and designed and configured to conformally receive a portion of the connector; characterized in that the video or graphical display device further comprises at least one permanent magnet secured to the body for attaching the backside of the body to a ferromagnetic support structure; and each recessed receptacle contains a plurality of electrical contacts located in the recess and facing a support structure when the video or graphical display device is deployed for use; wherein each recessed receptacle is designed and configured so that the graphical display device can be installed into and removed from a display mosaic of like devices in a direction perpendicular to the front side of the body, and wherein the recessed receptacles are formed in the backside and at the peripheral edge of the body and each of the electric contacts either of planar type or biased type comprising spring contacts. a body having a front side, a backside, and a periphery, wherein, the front side includes a display element; the backside is designed and configured to confront a support structure; the periphery is designed and configured to conformally abut a periphery of the like video or graphical display device; and a plurality of recessed receptacles each formed in a corresponding recess in the backside along the periphery and designed and configured to conformally receive a portion of the connector; characterized in that the video or graphical display device further comprises at least one permanent magnet secured to the body for attaching the backside of the body to a ferromagnetic support structure; and each recessed receptacle contains a plurality of electrical contacts located in the recess and facing a support structure when the video or graphical display device is deployed for use; wherein each recessed receptacle is designed and configured so that the graphical display device can be installed into and removed from a display mosaic of like devices in a direction perpendicular to the front side of the body, and wherein the recessed receptacles are formed in the backside and at the peripheral edge of the body and each of the electric contacts either of planar type or biased type comprising spring contacts.
A mining shovel bucket comprising: a first side wall; a second side wall opposite the first side wall; an upper wall portion; a first in-cheek sensor positioned on the first side wall and facing towards the second side wall; at least one down-looking sensor positioned on a forward-most portion of the upper wall portion and facing an interior of the mining shovel bucket; and a control enclosure mounted on the mining shovel bucket, wherein the control enclosure houses a signal processing system configured to receive and process signals transmitted by the first in-cheek sensor and the at least one down-looking sensor, and a communications system configured to transmit information generated by the signal processing system to a location remote from the mining shovel bucket or receive information from a location remote from the mining shovel bucket; characterised in that the first in-cheek sensor and the at least one down-looking sensor are configured to collect data related to the chemical composition of material contained within the bucket and the signal processing system is configured to identify the chemical composition of the mining material using the collected data. a first side wall; a second side wall opposite the first side wall; an upper wall portion; a first in-cheek sensor positioned on the first side wall and facing towards the second side wall; at least one down-looking sensor positioned on a forward-most portion of the upper wall portion and facing an interior of the mining shovel bucket; and a control enclosure mounted on the mining shovel bucket, wherein the control enclosure houses a signal processing system configured to receive and process signals transmitted by the first in-cheek sensor and the at least one down-looking sensor, and a communications system configured to transmit information generated by the signal processing system to a location remote from the mining shovel bucket or receive information from a location remote from the mining shovel bucket;
A method of wireless communication, comprising: Transmitting a quality of service, QoS, message to a device, the QoS message including a request for a transmission opportunity for sending uplink data to the device, the QoS message comprising a field indicating a buffer size for a plurality of traffic identifiers, TID, wherein a TID indicates an access category, AC, for the uplink data; Receiving a clear to transmit, CTX, message in response to the QoS message after the device receives QoS messages with buffer information from a plurality of uplink users; and Transmitting the uplink data to the device in response to the CTX message. Transmitting a quality of service, QoS, message to a device, the QoS message including a request for a transmission opportunity for sending uplink data to the device, the QoS message comprising a field indicating a buffer size for a plurality of traffic identifiers, TID, wherein a TID indicates an access category, AC, for the uplink data; Receiving a clear to transmit, CTX, message in response to the QoS message after the device receives QoS messages with buffer information from a plurality of uplink users; and Transmitting the uplink data to the device in response to the CTX message.
A light-emitting switch element (51, 52, 53, 54, 55, 56) used as configuration part of a capacitance type light-emitting switch, comprising a panel made of transparent materials, a decorated layer arranged on at least one side of said panel, a light guide plate arranged on the back sides of said panel and said decorated layer, a point light source or a line light source arranged on the side of said light guide plate, and a reflective layer, characterized in that the reflective layer is made of an opaque metal film of less than 1Ω/cm 2 of surface resistance measured by the four-point probe array measurement method, mounted on the back side of said light guide plate, and is formed to have an electrode unit, said reflective layer thereby serving as an electrode of the capacitance type light-emitting switch element.
Head part for an implantable medical device, with a head part housing that has at least one blind hole-like plug contact socket with a socket opening as well as a socket base axially opposite the socket opening, fitted along which are, in coaxial arrangement and axially serial sequence, at least one electrically conducting contact ring element as well as an electrically insulating, elastically deformable sealing ring, which are surrounded by a hardened casting compound, wherein arranged within the head part is at least one second blind hole-like plug contact socket with a socket opening as well as a socket base axially opposite the socket opening, fitted along which are, in coaxial arrangement and axially serial sequence, at least one electrically conducting contact ring element as well as an electrically insulating, elastically deformable sealing ring, which are surrounded by a hardened casting compound, in that the socket bases (71, 72) of the at least two plug contact sockets (51, 52) are delimited by a connection means that is at least partially surrounded by the hardened casting compound, characterised in that the connection means encompasses a through channel, which bilaterally opens out into the blind hole-like plug contact sockets (51, 52). arranged within the head part is at least one second blind hole-like plug contact socket with a socket opening as well as a socket base axially opposite the socket opening, fitted along which are, in coaxial arrangement and axially serial sequence, at least one electrically conducting contact ring element as well as an electrically insulating, elastically deformable sealing ring, which are surrounded by a hardened casting compound, in that the socket bases (71, 72) of the at least two plug contact sockets (51, 52) are delimited by a connection means that is at least partially surrounded by the hardened casting compound, characterised in that the connection means encompasses a through channel, which bilaterally opens out into the blind hole-like plug contact sockets (51, 52).
A display device (1, 1') comprising: a substrate comprising an opening area and a display area at least partially surrounding the opening area; a metal layer comprising a first region (310, 30E11-30E15) and a second region (320, 30E21-30E25) in a non-display area between the opening area and the display area, and an input sensing layer located in the display area and comprising first and second sensing electrodes (410, 420), wherein the first region (310, 30E11-30E15) and the second region (320, 30E21-30E25) are spaced apart from each other characterized in that one of the first region (310, 30E11-30E15) and the second region (320, 30E21-30E25) comprises a protrusion (320AP, 310BP, 310CP, 30EP1-30EP5) extending toward the other of the first region (310, 30E11-30E15) and the second region (320, 30E21-30E25), and the other of the first region (310, 30E11-30E15) and the second region (320, 30E21-30E25) has a shape to receive the protrusion (320AP, 310BP, 310CP, 30EP1-30EP5), and the first region (310, 30E11-30E15) and the second region (320, 30E21-30E25) of the metal layer being connected to the the first and second sensing electrodes, respectively (410, 420), wherein the first region (310, 30E11-30E15) and the second region (320, 30E21-30E25) are arranged in a circumferential direction surrounding an edge of the opening area. a substrate comprising an opening area and a display area at least partially surrounding the opening area; a metal layer comprising a first region (310, 30E11-30E15) and a second region (320, 30E21-30E25) in a non-display area between the opening area and the display area, and an input sensing layer located in the display area and comprising first and second sensing electrodes (410, 420), wherein the first region (310, 30E11-30E15) and the second region (320, 30E21-30E25) are spaced apart from each other characterized in that one of the first region (310, 30E11-30E15) and the second region (320, 30E21-30E25) comprises a protrusion (320AP, 310BP, 310CP, 30EP1-30EP5) extending toward the other of the first region (310, 30E11-30E15) and the second region (320, 30E21-30E25), and the other of the first region (310, 30E11-30E15) and the second region (320, 30E21-30E25) has a shape to receive the protrusion (320AP, 310BP, 310CP, 30EP1-30EP5), and the first region (310, 30E11-30E15) and the second region (320, 30E21-30E25) of the metal layer being connected to the the first and second sensing electrodes, respectively (410, 420), wherein the first region (310, 30E11-30E15) and the second region (320, 30E21-30E25) are arranged in a circumferential direction surrounding an edge of the opening area.
Method for manufacturing an injector for injecting fluid, comprising the following steps: - providing a valve assembly, the valve assembly comprising a valve body, a valve needle and an armature, the valve body having a longitudinal axis and comprising a cavity being operable to take in the valve needle and the armature, the valve needle and the armature being axially movable relative to the valve body and operable to control an injection of fluid from the cavity to external to the injector, - providing an actuator assembly, surrounding the valve assembly, the actuator assembly comprising a housing and a coil, the coil being energizeable to induce a force for axially displacing the armature, characterized in that - the actuator assembly comprises, in addition to the coil, a further magnetic element, the magnetic element being operable to induce a force for axially displacing the armature and - the method comprises a step of adjusting a flow characteristic, the flow characteristic being representative of an amount of fluid to be injected by the injector under a predetermined condition and/or of a flow rate of fluid to be injected by the injector, by axially shifting the valve assembly and the actuator assembly relative to each other. - providing a valve assembly, the valve assembly comprising a valve body, a valve needle and an armature, the valve body having a longitudinal axis and comprising a cavity being operable to take in the valve needle and the armature, the valve needle and the armature being axially movable relative to the valve body and operable to control an injection of fluid from the cavity to external to the injector, - providing an actuator assembly, surrounding the valve assembly, the actuator assembly comprising a housing and a coil, the coil being energizeable to induce a force for axially displacing the armature, characterized in that - the actuator assembly comprises, in addition to the coil, a further magnetic element, the magnetic element being operable to induce a force for axially displacing the armature and - the method comprises a step of adjusting a flow characteristic, the flow characteristic being representative of an amount of fluid to be injected by the injector under a predetermined condition and/or of a flow rate of fluid to be injected by the injector, by axially shifting the valve assembly and the actuator assembly relative to each other.
An implantable system for moving an electrode within a patient's body, comprising; a main body; and a motor mounted inside the main body, coupleable to the electrode and adapted to drive the electrode to move relatively to the main body.
A non-adherent wound dressing comprising an adhesive skin- or wound-contact layer provided with perforations, wherein the perforations comprise a first set of perforations of a first dimension in a generally central region of the contact layer that, in use, overlies a wound, and a second set of perforations of a second dimension in a peripheral region of the contact layer that, in use, overlies the peri-wound skin, the first dimension being greater than the second dimension.
A discharge system (200, 201) for a motor vehicle (100, 101), the motor vehicle (100, 101) comprises an internal combustion engine (125, 126) connected to a frame member (105, 106) of said motor vehicle (105, 106), the discharge system (200, 201) comprising: a discharge pipe (205, 206), the discharge pipe (205, 206) includes an upstream portion (205A, 206A), the upstream portion (205A, 206A) being connected to an exhaust port of the IC engine (125, 126); and a muffler (130, 131), the muffler (130, 131) being connected to a downstream portion of the discharge pipe (205, 206); the discharge pipe (205, 206) being provided with a device housing (210, 211), the device housing (210, 211) being capable of accommodating a gas treatment device disposed therein, the discharge system (200, 201) being characterised in that the gas treatment device is disposed at a distance of at least six times a port diameter or major cross sectional dimension of the exhaust port. a discharge pipe (205, 206), the discharge pipe (205, 206) includes an upstream portion (205A, 206A), the upstream portion (205A, 206A) being connected to an exhaust port of the IC engine (125, 126); and a muffler (130, 131), the muffler (130, 131) being connected to a downstream portion of the discharge pipe (205, 206); the discharge pipe (205, 206) being provided with a device housing (210, 211), the device housing (210, 211) being capable of accommodating a gas treatment device disposed therein, the discharge system (200, 201) being characterised in that the gas treatment device is disposed at a distance of at least six times a port diameter or major cross sectional dimension of the exhaust port.
A liner for a cargo and/or accessory compartment of an aircraft, wherein the liner is fire-resistant and gas tight to the extent of fire starving capability and keeps smoke emissions to a neglectable level in terms of flight safety, wherein the liner comprises a bag of fire-resistant and gas tight flexible fabric, wherein the bag is adapted to form at least a ceiling and sidewalls of the cargo and/or accessory compartment, and wherein the bag is adapted to form a floor of the cargo and/or accessory compartment, wherein the liner further comprises a floor frame for spanning a floor portion of the fabric, characterized in that the floor portion of the fabric is a separate piece from a remainder of the bag such that the floor portion is replaceable independently from the remainder of the bag with or without the floor frame.
An endoscopic stapling and cutting instrument comprising: an end effector comprising at least one sensor; and an electrically conductive shaft having a distal end connected to the end effector, wherein the electrically conductive shaft is arranged and configured to serve as an antenna such that signals can be wirelessly communicated to and from the at least one sensor. an end effector comprising at least one sensor; and an electrically conductive shaft having a distal end connected to the end effector, wherein the electrically conductive shaft is arranged and configured to serve as an antenna such that signals can be wirelessly communicated to and from the at least one sensor.
A turboprop engine system for an aircraft comprising: an engine; a propeller; a geartrain coupled to and configured to provide power from the engine to the propeller at a predetermined gear reduction; a gearbox that houses at least part of the geartrain, the gearbox including a gearbox flow structure; and an inlet flow structure that is removably attached to the gearbox, the inlet flow structure and the gearbox flow structure cooperating to define an inlet flow passage to the engine, characterised by: the inlet flow passage having an upstream end that is cooperatively defined by the inlet flow structure and the gearbox flow structure and a downstream end that is cooperatively defined by the inlet flow structure and the gearbox flow structure, the upstream end configured to receive an airstream that is directed along the inlet flow passage to the downstream end and toward the engine. an engine; a propeller; a geartrain coupled to and configured to provide power from the engine to the propeller at a predetermined gear reduction; a gearbox that houses at least part of the geartrain, the gearbox including a gearbox flow structure; and an inlet flow structure that is removably attached to the gearbox, the inlet flow structure and the gearbox flow structure cooperating to define an inlet flow passage to the engine, characterised by: the inlet flow passage having an upstream end that is cooperatively defined by the inlet flow structure and the gearbox flow structure and a downstream end that is cooperatively defined by the inlet flow structure and the gearbox flow structure, the upstream end configured to receive an airstream that is directed along the inlet flow passage to the downstream end and toward the engine.
Container sleeving method for arranging sleeves around a plurality of containers, the method comprising: - transporting an array of containers past a sleeve discharge unit; - arranging a sleeve of heat shrinkable foil around a container passing by the sleeve discharge unit by shooting the sleeve from the sleeve discharge unit towards the container; - detecting whether the sleeve has been correctly arranged around the container; - if the sleeve has not been arranged correctly around the container, continue transporting one or more containers along the sleeve discharge unit and discontinue shooting one or more sleeves towards the containers. - transporting an array of containers past a sleeve discharge unit; - arranging a sleeve of heat shrinkable foil around a container passing by the sleeve discharge unit by shooting the sleeve from the sleeve discharge unit towards the container; - detecting whether the sleeve has been correctly arranged around the container; - if the sleeve has not been arranged correctly around the container, continue transporting one or more containers along the sleeve discharge unit and discontinue shooting one or more sleeves towards the containers.
A method of producing a soluble whole oat flour comprising: combining a whole oat starting mixture and a suitable enzyme and water to form an enzyme starting mixture, wherein the whole oat starting mixture comprises 50 to 100 wt% whole oat flour; heating the enzyme starting mixture to between 48.8°C (120°F) and 93.3°C (200°F) to begin to hydrolyze the starch molecules; and extruding the resultant mixture to continue hydrolyzing the starch and further to gelatinize and cook the mixture to form the soluble oat flour, wherein the extruding occurs at a barrel temperature of 60°C (140°F) to 121.1°C (250°F). combining a whole oat starting mixture and a suitable enzyme and water to form an enzyme starting mixture, wherein the whole oat starting mixture comprises 50 to 100 wt% whole oat flour; heating the enzyme starting mixture to between 48.8°C (120°F) and 93.3°C (200°F) to begin to hydrolyze the starch molecules; and extruding the resultant mixture to continue hydrolyzing the starch and further to gelatinize and cook the mixture to form the soluble oat flour, wherein the extruding occurs at a barrel temperature of 60°C (140°F) to 121.1°C (250°F).
Milling tool having a base body that comprises a centre axis and said base body comprises a clamping area and an operational area, wherein the operational area comprises an end face and a circumferential surface that connects - when viewed in the axial direction - to the end face, wherein at least four geometrically defined cutting edges (13, 15, 17, 19, 21) are arranged on the circumferential surface, wherein in each case two - when viewed in the circumferential direction - directly adjacent cutting edges (13, 15, 17, 19, 21) are spaced from one another by means of a dividing angle (α, β, γ, δ, ε), wherein the operational area - when viewed along the centre axis - comprises a first dividing area in which all the dividing angles (α, β, γ, δ, ε) are different from one another, characterised in that all the cutting edges (13, 15, 17, 19, 21) comprise in each case precisely one interruption along their extent, wherein all the interruptions - when viewed in the axial direction - are arranged offset with respect to one another.