mhurhangee/ep-ind-claims huggingface dataset:
An imaging system, comprising: a radiation source that emits radiation that traverses an examination region; a detection system that detects radiation that traverses the examination region and generates a signal indicative thereof, the detection system, including: a first detector array (114 1); and a second detector array (114 N), wherein the first and second detector arrays (114 1 - 114 N) are separately distinct detector arrays and the second detector array (114 N) is moveable with respect to the radiation beam between a first position in which the second detector array (114 N) is in a path traversed by emitted radiation and a second position in which the second detector array (114 N) is outside of the path; and characterised by a reconstructor that reconstructs the signal and generates X-ray volumetric image data indicative thereof when the second detector array (114 N) is in the first position and when the second detector array (114 N) is in the second position, wherein at least one of the detector arrays (114 1 - 114 N) includes a spectral detector array or a photon counting detector array. a radiation source that emits radiation that traverses an examination region; a detection system that detects radiation that traverses the examination region and generates a signal indicative thereof, the detection system, including: a first detector array (114 1); and a second detector array (114 N), wherein the first and second detector arrays (114 1 - 114 N) are separately distinct detector arrays and the second detector array (114 N) is moveable with respect to the radiation beam between a first position in which the second detector array (114 N) is in a path traversed by emitted radiation and a second position in which the second detector array (114 N) is outside of the path; and characterised by a reconstructor that reconstructs the signal and generates X-ray volumetric image data indicative thereof when the second detector array (114 N) is in the first position and when the second detector array (114 N) is in the second position, a first detector array (114 1); and a second detector array (114 N), wherein the first and second detector arrays (114 1 - 114 N) are separately distinct detector arrays and the second detector array (114 N) is moveable with respect to the radiation beam between a first position in which the second detector array (114 N) is in a path traversed by emitted radiation and a second position in which the second detector array (114 N) is outside of the path; and
An impact torque generator for a hydraulic torque wrench having a liner to be rotated by a rotor equipped with a cavity to be filled inside with hydraulic fluid and with sealing surfaces formed so as to project from the inner peripheral surface of the cavity, a main shaft having two projections (15a, 15b) coaxially installed inside the liner and two driving blades (14a, 14b) each having sealing surfaces at both ends, inserted in the cavity of the liner to be filled with hydraulic fluid and the liner inside is divided into high-pressure room and low-pressure room by the driving blade (14a, 14b) so as to generate impact torque on the main shaft, two sealing surfaces (11a, 11b) of the liner being formed at the 180 degree rotational symmetry of the cavity, and when the sealing surface and one sealing surface of each driving blade coincide, the other sealing surface slides in contact with the inner peripheral surface of the cavity to seal, thereby dividing the inside of the liner into high-pressure room and low-pressure room by the driving blade so as to generate the impact torque on the main shaft, characterized in that the cross-sectional shape of the driving blade (14a, 14b) is asymmetrical.
A method of using a blockchain to control a process executing on a computing resource operating in parallel to the blockchain and arranged to monitor a state of the blockchain, the method comprising the steps: executing a loop on the computing resource; and using the state of the blockchain to influence the execution of the loop by, for each iteration of the loop: restarting the loop at an iteration specified by information provided within or in association with a transaction on the blockchain if the computing resource finds a predetermined hash of a portion of code relating to the loop in the transaction. executing a loop on the computing resource; and using the state of the blockchain to influence the execution of the loop by, for each iteration of the loop: restarting the loop at an iteration specified by information provided within or in association with a transaction on the blockchain if the computing resource finds a predetermined hash of a portion of code relating to the loop in the transaction.
A method, performed in an accessory device, for communicating an operating state of a wound dressing (2, 2A) comprising an absorbent core layer, wherein the accessory device comprises an interface configured to communicate with one or more devices of a wound dressing system, the one or more devices comprising a monitor device connected to a wound dressing (2, 2A), wherein the wound dressing is placed on a skin surface of a user, the method comprising: obtaining monitor data from the monitor device, the monitor data being indicative of a condition of the wound dressing; determining an operating state of the wound dressing based on the monitor data, wherein the operating state is indicative of a degree of wetting of the absorbent core layer of the wound dressing and indicative of a wetting pattern of the absorbent core layer; and communicating the operating state of the wound dressing via the interface. obtaining monitor data from the monitor device, the monitor data being indicative of a condition of the wound dressing; determining an operating state of the wound dressing based on the monitor data, wherein the operating state is indicative of a degree of wetting of the absorbent core layer of the wound dressing and indicative of a wetting pattern of the absorbent core layer; and communicating the operating state of the wound dressing via the interface.
Method for producing a metal-ceramic substrate (1, 11, 12), in which at least one metal layer is attached to at least one surface side of a ceramic layer, which metal layer is structured into several metallization regions (5, 6) respectively separated from one another by at least one trench-shaped intermediate space to form conductive paths and/or connective surfaces and/or contact surfaces, wherein at least the intermediate space is filled with an electrically insulating filler material, wherein first edges of the metallization regions (5, 6) facing and adjoining the surface side of the ceramic layer in the intermediate space, as well as at least one second edge of the metallization regions (5, 6) facing away from the surface side of the ceramic layer in the intermediate space, are covered by the filler material, characterized in that the filler material is filled into at least the intermediate space after at least one electric or electronic component is mounted onto the metal layer. first edges of the metallization regions (5, 6) facing and adjoining the surface side of the ceramic layer in the intermediate space, as well as at least one second edge of the metallization regions (5, 6) facing away from the surface side of the ceramic layer in the intermediate space, are covered by the filler material, characterized in that the filler material is filled into at least the intermediate space after at least one electric or electronic component is mounted onto the metal layer.
A process to inhibit or limit the decomposition of a halide-containing olefin oligomerization catalyst system during recovery of an olefin oligomerization product comprising the steps of: a) forming an intermediate stream by contacting an olefin oligomerization reactor effluent stream which comprises olefin product(s) and catalyst system with an alcohol that is soluble in any portion of the reactor effluent stream; and b) separating the intermediate stream of step (a) into at least one olefin oligomerization product stream; wherein the separation comprises a distillation comprising a reboiler and material passed through the reboiler is maintained below 190°C, and wherein the catalyst system comprises a chromium source, a pyrrole-containing compound and an alkylaluminum compound; and wherein the alcohol is added in an amount to effect a mole alcohol to mole aluminium ratio between 2.5 and 1.5. a) forming an intermediate stream by contacting an olefin oligomerization reactor effluent stream which comprises olefin product(s) and catalyst system with an alcohol that is soluble in any portion of the reactor effluent stream; and b) separating the intermediate stream of step (a) into at least one olefin oligomerization product stream; wherein the separation comprises a distillation comprising a reboiler and material passed through the reboiler is maintained below 190°C, and wherein the catalyst system comprises a chromium source, a pyrrole-containing compound and an alkylaluminum compound; and wherein the alcohol is added in an amount to effect a mole alcohol to mole aluminium ratio between 2.5 and 1.5.
Method of boosting the hydraulic brake pressure in a hydraulic motor vehicle brake system (100, 200), comprising the following steps: - generating a first pressure component of a brake pressure in the brake system (100, 200) in a driver-controlled manner, - acquiring a deceleration value (a) that indicates a deceleration of the vehicle; - determining a first pressure value, which is associated with the first pressure component, on the basis of the deceleration value (a); - checking a plausibility of a second pressure value, which is determined by means of a pressure sensor and associated with the first pressure component; and in the case of a successful plausibility check: - generating an additional second pressure component, wherein the second pressure component is a function of the second pressure value. - generating a first pressure component of a brake pressure in the brake system (100, 200) in a driver-controlled manner, - acquiring a deceleration value (a) that indicates a deceleration of the vehicle; - determining a first pressure value, which is associated with the first pressure component, on the basis of the deceleration value (a); - checking a plausibility of a second pressure value, which is determined by means of a pressure sensor and associated with the first pressure component; - generating an additional second pressure component, wherein the second pressure component is a function of the second pressure value.
A device for the collection and testing of fluid specimens, comprising a first cavity and a second cavity; wherein, the first cavity is located inside the second cavity; furthermore, the first and second cavities are interconnected; wherein said first cavity is available for mutual rotation with the second cavity to facilitate fluid to flow between them; and wherein the first cavity is rotatable between at a first position and a second position inside the second cavity, characterized in that the volume of the first cavity rotated to the second position is reduced compared to the volume of the first cavity rotated to the first position to facilitate fluid inside it to flow into the second cavity.
An apparatus for creating a radiation treatment plan for execution by a radiation treatment machine, comprising: a waypoint module configured to obtain imaging waypoint data representing imaging waypoints; a treatment trajectory module configured to obtain treatment data at least partially defining a beam-on direction; and a treatment plan generator configured to create the radiation treatment plan based at least in part on the imaging waypoint data and the treatment data; characterized in that: at least one of the imaging waypoints: (i) refers to, represents and/or is associated with a point in time where imaging is possible; or (ii) represents an instantaneous temporal opportunity to acquire one or more images. a waypoint module configured to obtain imaging waypoint data representing imaging waypoints; a treatment trajectory module configured to obtain treatment data at least partially defining a beam-on direction; and a treatment plan generator configured to create the radiation treatment plan based at least in part on the imaging waypoint data and the treatment data; characterized in that: at least one of the imaging waypoints: (i) refers to, represents and/or is associated with a point in time where imaging is possible; or (ii) represents an instantaneous temporal opportunity to acquire one or more images. (i) refers to, represents and/or is associated with a point in time where imaging is possible; or (ii) represents an instantaneous temporal opportunity to acquire one or more images.
An apparatus comprising: a transistor comprising: a gate dielectric layer formed on a substrate; a gate electrode formed on the gate dielectric layer; a source on one side of the gate electrode, a drain on an opposite side of the gate electrode and a channel between the source and drain, each of the source, drain and channel comprising semiconductor material; and a contact (160, 170) to one of the source and the drain, wherein the contact (160, 170) comprises a low density of states metal, having an interface of the metal and a semiconductor material of one of the source and drain, and wherein the interface between the metal and the semiconductor material has a stepped profile, characterized in that the contact area between the semiconductor material and the metal taken through a horizontal cross-section of the interface gets progressively smaller proceeding in a direction towards substrate, wherein the low density of states metal is one of antimony, bismuth, or tin, or is an alloy of antimony, bismuth or tin. a transistor comprising: a gate dielectric layer formed on a substrate; a gate electrode formed on the gate dielectric layer; a source on one side of the gate electrode, a drain on an opposite side of the gate electrode and a channel between the source and drain, each of the source, drain and channel comprising semiconductor material; and a gate dielectric layer formed on a substrate; a gate electrode formed on the gate dielectric layer; a source on one side of the gate electrode, a drain on an opposite side of the gate electrode and a channel between the source and drain, each of the source, drain and channel comprising semiconductor material; and a contact (160, 170) to one of the source and the drain, wherein the contact (160, 170) comprises a low density of states metal, having an interface of the metal and a semiconductor material of one of the source and drain, and wherein the interface between the metal and the semiconductor material has a stepped profile, characterized in that the contact area between the semiconductor material and the metal taken through a horizontal cross-section of the interface gets progressively smaller proceeding in a direction towards substrate, wherein the low density of states metal is one of antimony, bismuth, or tin, or is an alloy of antimony, bismuth or tin.
A method for providing wireless fixed access between an array of service antennas and a population of local terminals (40, 60), comprising: obtaining channel state information from transmissions by the local terminals, wherein the CSI has fast-fading and slow-fading components between said array and said local terminals; beamform precoding messages destined for at least some of the local terminals using the CSI; allocating power for transmission from a multiple-antenna array to respective ones of the local terminals, wherein said allocating is performed using only slow-fading components of the CSI; and transmitting the precoded messages to the local terminals at the allocated power levels; wherein at least some of the CSI is obtained by successive approximations using indications of signal-to-noise-and-interference ratio (SINR) fed back from the local terminals (40, 60), the successive approximations being based on separation of amplitude estimation and phase estimation. obtaining channel state information from transmissions by the local terminals, wherein the CSI has fast-fading and slow-fading components between said array and said local terminals; beamform precoding messages destined for at least some of the local terminals using the CSI; allocating power for transmission from a multiple-antenna array to respective ones of the local terminals, wherein said allocating is performed using only slow-fading components of the CSI; and transmitting the precoded messages to the local terminals at the allocated power levels; wherein at least some of the CSI is obtained by successive approximations using indications of signal-to-noise-and-interference ratio (SINR) fed back from the local terminals (40, 60), the successive approximations being based on separation of amplitude estimation and phase estimation.
A blade protection cover for coupling to a blade of a lawn mower apparatus, wherein the blade is fixed to a rotatable plate of the lawn mower apparatus via a screw passing through one end in a longitudinal direction of the blade, the blade protection cover comprising: a first cover for covering one face of the blade; two second covers connected to the first cover, the second covers covering both edges of the blade in a width direction of the blade, respectively; and a guide disposed on inner faces of both second covers, respectively, wherein the guides are constructed to guide the blade protection cover to slide along both edges of the blade in the width direction of the blade and thus to be coupled to the blade, wherein the blade protection cover further comprises a third cover for covering an edge of the blade of one end in the longitudinal direction of the blade, and wherein the blade protection cover is constructed not to cause interference with the screw when the blade protection cover slides in a sliding direction from inside to outside of the rotatable plate to be coupled to the blade fixed to the rotatable plate via the screw. a first cover for covering one face of the blade; two second covers connected to the first cover, the second covers covering both edges of the blade in a width direction of the blade, respectively; and a guide disposed on inner faces of both second covers, respectively, wherein the guides are constructed to guide the blade protection cover to slide along both edges of the blade in the width direction of the blade and thus to be coupled to the blade, wherein the blade protection cover further comprises a third cover for covering an edge of the blade of one end in the longitudinal direction of the blade, and wherein the blade protection cover is constructed not to cause interference with the screw when the blade protection cover slides in a sliding direction from inside to outside of the rotatable plate to be coupled to the blade fixed to the rotatable plate via the screw.
A gas turbine engine component comprising: a combustor wall having an exterior pressure side surface and an interior surface; a cooling hole extending transverse to the interior surface and the exterior pressure side surface; and a first relief cut surrounding the cooling hole on the exterior pressure side surface; characterised in that: the component further comprises a second relief cut surrounding the cooling hole on the interior surface. a combustor wall having an exterior pressure side surface and an interior surface; a cooling hole extending transverse to the interior surface and the exterior pressure side surface; and a first relief cut surrounding the cooling hole on the exterior pressure side surface; the component further comprises a second relief cut surrounding the cooling hole on the interior surface.
Transport position securing device for non-slip transportation of articles with complex shaped component geometries and/or delicate add-on components with a frame consisting of two side walls arranged opposite to each other and one or several cross sections arranged between the side walls, characterized by the fact - that t-slots are arranged in the side walls opposite to each other, and - that two clamping rockers are on swivel bearings in these t-slots to be in pairs in the frame, and - that each of the two clamping rockers has two carrier plates arranged at a distance from one another inside the frame between both the side walls, whereby the carrier plates have kingpins located to the outside in the direction of the side wall which are mounted on pivots in the t-slots, and - that two position securing bars are arranged between the carrier plates at a distance from the kingpins where the transportation goods do not load the clamping rocker, they are above the kingpins to be parallel to the central axis of the kingpins and one or several reset rods is/are located opposite to these, whereby the centre of gravity of each clamping g rocker always rests between the transport position securing bars and is between the central axis of the kingpins when the transportation goods do not exert a load. - that t-slots are arranged in the side walls opposite to each other, and - that two clamping rockers are on swivel bearings in these t-slots to be in pairs in the frame, and - that each of the two clamping rockers has two carrier plates arranged at a distance from one another inside the frame between both the side walls, whereby the carrier plates have kingpins located to the outside in the direction of the side wall which are mounted on pivots in the t-slots, and - that two position securing bars are arranged between the carrier plates at a distance from the kingpins where the transportation goods do not load the clamping rocker, they are above the kingpins to be parallel to the central axis of the kingpins and one or several reset rods is/are located opposite to these, whereby the centre of gravity of each clamping g rocker always rests between the transport position securing bars and is between the central axis of the kingpins when the transportation goods do not exert a load.
A method of manufacturing an optoelectronic device comprising an array of axial diodes, each diode forming a resonant cavity having a standing electromagnetic wave forming therein, the active area of each diode being located substantially at the level of an extremum of the electromagnetic wave, the array forming a photonic crystal configured to maximize the intensity of the electromagnetic radiation supplied by the diode array, wherein the forming of the diodes of the array comprises: forming first semiconductor regions on a substrate, the first regions being separated from one another by the pitch of the array; forming an active area on each first region; and forming a second semiconductor region on each active area, the method comprising, before the formation of the active areas, a first step of etching all the first regions so that they have the height enabling the active area to be located at the level of an extremum of the electromagnetic wave. forming first semiconductor regions on a substrate, the first regions being separated from one another by the pitch of the array; forming an active area on each first region; and forming a second semiconductor region on each active area,