mhurhangee/ep-ind-claims huggingface dataset:
A background display device for a virtual image recording studio that is configured to display, behind or above a real subject, a representation of a virtual background for a recording by an associated camera, wherein the background display device has at least one panel having a plurality of picture elements in an at least two-dimensional arrangement, wherein each of the plurality of picture elements has a respective light source unit which comprises a first light source for generating a first emission spectrum, a second light source for generating a second emission spectrum, and a third light source for generating a third emission spectrum, wherein the background display device has a control device which is configured to individually control the light sources (44a, 44b, 44c) of the light source units and to generate a respective light source unit emission spectrum by mixing the respective first emission spectra, second emission spectra, and third emission spectra, characterized in that the panel furthermore has a plurality of correction light sources, wherein the control device is configured to adapt the respective light source unit emission spectrum to a corrected emission spectrum, which is approximated to a predefined or predefinable emission spectrum, by controlling the correction light sources. wherein the background display device has at least one panel having a plurality of picture elements in an at least two-dimensional arrangement, wherein each of the plurality of picture elements has a respective light source unit which comprises a first light source for generating a first emission spectrum, a second light source for generating a second emission spectrum, and a third light source for generating a third emission spectrum, wherein the background display device has a control device which is configured to individually control the light sources (44a, 44b, 44c) of the light source units and to generate a respective light source unit emission spectrum by mixing the respective first emission spectra, second emission spectra, and third emission spectra, characterized in that the panel furthermore has a plurality of correction light sources, wherein the control device is configured to adapt the respective light source unit emission spectrum to a corrected emission spectrum, which is approximated to a predefined or predefinable emission spectrum, by controlling the correction light sources.
A method for acknowledging a semi-persistent scheduling, SPS, resource release, comprising: receiving an SPS resource release signal over a physical downlink control channel in a Downlink Control Information, DCI, format 1A, the signal including an indicator that indicates that the signal pertains to at least one of an uplink resource release and a downlink resource release, wherein the indicator is included in a data field in the signal, and wherein the data field is at least one of: a Localized/Distributed Assignment Flag field; and a TPC Command for PUCCH field, the method further comprising sending an acknowledgement to confirm receipt of the signal. receiving an SPS resource release signal over a physical downlink control channel in a Downlink Control Information, DCI, format 1A, the signal including an indicator that indicates that the signal pertains to at least one of an uplink resource release and a downlink resource release, wherein the indicator is included in a data field in the signal, and wherein the data field is at least one of: a Localized/Distributed Assignment Flag field; and a TPC Command for PUCCH field, wherein the indicator is included in a data field in the signal, and wherein the data field is at least one of: a Localized/Distributed Assignment Flag field; and a TPC Command for PUCCH field, a Localized/Distributed Assignment Flag field; and a TPC Command for PUCCH field, the method further comprising sending an acknowledgement to confirm receipt of the signal.
A flow passage, through which a medium can flow in a direction of flow P, for a heat exchanger having two heat exchanger surfaces (F1, F2), which lie substantially opposite one another, are in particular arranged parallel and/or at a spacing of a passage height H and each have a structure formed from a plurality of structure elements that are arranged next to one another in rows transversely with respect to the direction of flow P and project into the flow passage, wherein the structure elements each have a width B, a length L, a height h, a flow off angle α and a longitudinal axis, wherein at least two rows (17, 18, 19, 20) with structure elements (13, 13') on substantially opposite heat exchanger surfaces (F1, F2) have an overlap (Ü) with one another, such that a structure element of a heat exchanger surface overlaps with an opposite structure element of the opposite heat exchanger surface, wherein the structure elements are elongate and rectangular in form and have a straight longitudinal axis, characterised in that the structure elements on the one heat exchanger surface are arranged opposite to the structure elements of the other heat exchanger surface, so that they have an opposite flow-off angle α and in that the rows of the structure elements on the one heat exchanger surface are offset in the flow direction opposite the rows of the structure elements on the other heat exchanger surface.
A system comprising: a turbine blade track or a turbine blade shroud comprising a substrate; and a coating on the substrate, wherein the coating comprises at least one abradable layer, wherein the at least one abradable layer is porous, wherein the at least one abradable layer comprises a matrix material and a plurality of microspheres located within the at least one abradable layer at a predetermined depth from an outer surface of the coating, wherein the plurality of microspheres define a visual characteristic distinct from the matrix material, and wherein the plurality of microspheres comprise at least one rare earth oxide, at least one rare earth silicate, or at least one rare earth oxide and at least one rare earth silicate; and a gas turbine blade, wherein the gas turbine blade is configured to contact a portion of the at least one abradable layer on the substrate during rotation of the gas turbine blade, and wherein the at least one abradable layer is configured to be abraded to at least the predetermined depth by the contact by the gas turbine blade. a turbine blade track or a turbine blade shroud comprising a substrate; and a coating on the substrate, wherein the coating comprises at least one abradable layer, wherein the at least one abradable layer is porous, wherein the at least one abradable layer comprises a matrix material and a plurality of microspheres located within the at least one abradable layer at a predetermined depth from an outer surface of the coating, wherein the plurality of microspheres define a visual characteristic distinct from the matrix material, and wherein the plurality of microspheres comprise at least one rare earth oxide, at least one rare earth silicate, or at least one rare earth oxide and at least one rare earth silicate; and a gas turbine blade, wherein the gas turbine blade is configured to contact a portion of the at least one abradable layer on the substrate during rotation of the gas turbine blade, and wherein the at least one abradable layer is configured to be abraded to at least the predetermined depth by the contact by the gas turbine blade.
A device for overload protection in a crane, more specifically a reactor building crane with a reinforced auxiliary hoist, for transporting reactor elements, consisting of - an adapter with a load sensor (8, 9), a spring, which in case of an overload unblocks an additional displacement for protection of the system, an amplifier (10, 11) and an emitter (14, 15) which transmits load values to a receiver (12, 13) and - a receiver (12, 13) at the crane control system, which switches off the drive of the cable drum when a predetermined load value is exceeded. - an adapter with a load sensor (8, 9), a spring, which in case of an overload unblocks an additional displacement for protection of the system, an amplifier (10, 11) and an emitter (14, 15) which transmits load values to a receiver (12, 13) and - a receiver (12, 13) at the crane control system, which switches off the drive of the cable drum when a predetermined load value is exceeded.
A device for accepting roll material, wherein the roll material lays flat against a disc with one end face, wherein the disc has at least one securing device, which is formed in such a way that, when the disc is turning, grasping between a defined supporting surface and a plane of a disc is impossible, characterized in that for exchanging the roll material, the defined supporting surface is spaced from the plane of the disc when the disc is stationary, wherein the disc has a star disc forming the supporting surface for the roll material, and wherein the securing device of the disc is formed as a surround guard and is arranged such that an upper edge of the surround guard is flush with the support surface.
In a computing environment, a method for synchronizing passwords between a source service and a target service, so that the same credentials can be used to access the source service and the target service, the method comprising: calling the source service to obtain credential-related data, wherein the call provides a synchronization timestamp, receiving, from the source service, a set of hashed credentials corresponding to plaintext passwords, wherein the set of hashed credentials only includes credentials changed since the provided synchronization timestamp, and exporting data that corresponds to the set of hashed credentials to a target service to synchronize the data that corresponds to the set of hashed credentials to the target service for use in identity authentication, wherein the set of hashed credentials comprises hash values based upon plaintext passwords, wherein for each plaintext password a first hash value is computed of the plaintext password with a primary hashing algorithm, and further comprising, secondarily hashing the first hash values into a secret-protected blob using a secondary hash algorithm to compute the data that corresponds to the set of hashed credentials for exporting to the target service. calling the source service to obtain credential-related data, wherein the call provides a synchronization timestamp, receiving, from the source service, a set of hashed credentials corresponding to plaintext passwords, wherein the set of hashed credentials only includes credentials changed since the provided synchronization timestamp, and exporting data that corresponds to the set of hashed credentials to a target service to synchronize the data that corresponds to the set of hashed credentials to the target service for use in identity authentication, wherein the set of hashed credentials comprises hash values based upon plaintext passwords, wherein for each plaintext password a first hash value is computed of the plaintext password with a primary hashing algorithm, and further comprising, secondarily hashing the first hash values into a secret-protected blob using a secondary hash algorithm to compute the data that corresponds to the set of hashed credentials for exporting to the target service.
A multi-electrode patch for use with a fetal heart rate monitor, the multi-electrode patch comprising: a flexible substructure attachable to the skin of a pregnant subject; at least three sensing electrodes (142, 144, 146) positioned on the flexible substructure to approximate an arc; a common electrode positioned on the flexible substructure, the common electrode defining the centre of a circle with the at least three sensing electrodes (142, 144, 146) lying on a circumference of the circle; and at least one connection port electrically connected to each sensing electrode and permitting electrical connection to a fetal heart rate monitor; characterised by: the common electrode being spaced from a centremost one of the sensing electrodes by a distance of between 14 and 20 cm on the concave side of the arc; and the outermost of the at least three sensing electrodes (142, 146) subtending an arc of approximately 30 to 45 degrees. a flexible substructure attachable to the skin of a pregnant subject; at least three sensing electrodes (142, 144, 146) positioned on the flexible substructure to approximate an arc; a common electrode positioned on the flexible substructure, the common electrode defining the centre of a circle with the at least three sensing electrodes (142, 144, 146) lying on a circumference of the circle; and at least one connection port electrically connected to each sensing electrode and permitting electrical connection to a fetal heart rate monitor; characterised by: the common electrode being spaced from a centremost one of the sensing electrodes by a distance of between 14 and 20 cm on the concave side of the arc; and the outermost of the at least three sensing electrodes (142, 146) subtending an arc of approximately 30 to 45 degrees. the common electrode being spaced from a centremost one of the sensing electrodes by a distance of between 14 and 20 cm on the concave side of the arc; and the outermost of the at least three sensing electrodes (142, 146) subtending an arc of approximately 30 to 45 degrees.
A crystal form A of compound 1, wherein the crystal form A of compound 1 has an X-ray powder diffraction pattern comprising characteristic diffraction peaks at angle 2θ of 7.16 ± 0.2°, 17.98 ± 0.2°, and 22.30±0.2°;
An integrated indoor-outdoor unit type air conditioner in which components constituting an outdoor unit and components constituting an indoor unit are vertically integrated, the integrated indoor-outdoor unit type air conditioner comprising an inner frame (24,24A,24B,24C), the inner frame comprising: a back board member constituting a back face of the integrated indoor-outdoor unit type air conditioner, and whose upper end portion is provided with a hooking portion; a first tray member that is formed of a resin material to constitute a bottom of the integrated indoor-outdoor unit type air conditioner, and that is connected to a lower end of the back board member to support components of one of the outdoor unit and the indoor unit; and a second tray member that is formed of a resin material, and that is connected to an intermediate portion of the back board member to support components of the other of the outdoor unit and the indoor unit; the integrated indoor-outdoor unit type air conditioner being characterized in that the back board member is formed of a sheet metal material and is an angle member including a vertical back face board and a side face board. a back board member constituting a back face of the integrated indoor-outdoor unit type air conditioner, and whose upper end portion is provided with a hooking portion; a first tray member that is formed of a resin material to constitute a bottom of the integrated indoor-outdoor unit type air conditioner, and that is connected to a lower end of the back board member to support components of one of the outdoor unit and the indoor unit; and a second tray member that is formed of a resin material, and that is connected to an intermediate portion of the back board member to support components of the other of the outdoor unit and the indoor unit; the integrated indoor-outdoor unit type air conditioner being characterized in that the back board member is formed of a sheet metal material and is an angle member including a vertical back face board and a side face board.
A handling vehicle comprising docking means for docking a load to be displaced, in particular an anode assembly or a casting vessel of an electrolysis plant, wherein the vehicle comprises: - means for remotely detecting obstacles, able to scan a detection area adjacent to the vehicle, - means for collecting kinematic data, intended to collect one or several data concerning the kinematics of the vehicle, the vehicle further comprising means for detecting obstacles by contact, arranged on a portion of the vehicle intended to face the load to be docked during a docking maneuver, and characterized in that the vehicle comprises a processing unit intended to define, within the detection area, a monitoring area to be monitored by the remote obstacle detection means, the shape of the monitoring area being calculated by the processing unit as a function of the kinematic data provided by the collection means, and braking means, intended to brake and/or to stop the vehicle as soon as an obstacle is detected in the monitoring area or is struck by the contact obstacle detection means. - means for remotely detecting obstacles, able to scan a detection area adjacent to the vehicle, - means for collecting kinematic data, intended to collect one or several data concerning the kinematics of the vehicle,
A method of installing a chassis into a rack, the rack having four vertical members (103a, 103b, 105a, 105b) including a front left member, a back left member, a front right member and a back right member, and two expandable horizontal members (101a, 109a, 101b, 109b) including a right expandable horizontal members, and a left expandable horizontal member, the left horizontal member being attached to both the front left and back left vertical members, and the right horizontal member being attached to both the front right and back right vertical members, both of the two horizontal members including a chassis support lip (102a, 102b), the method comprising: installing a cross member on top of, and substantially perpendicular to the left and right expandable horizontal members; and, subsequently, supporting a rear right corner and a rear left corner of a chassis on a chassis support lip (102a, 102b), of the horizontal members (101a, 109a, 101b, 109b), respectively, the horizontal members being made of a bendable material, whereby the cross member limits bowing of the horizontal members under the weight of the chassis. installing a cross member on top of, and substantially perpendicular to the left and right expandable horizontal members; and, subsequently, supporting a rear right corner and a rear left corner of a chassis on a chassis support lip (102a, 102b), of the horizontal members (101a, 109a, 101b, 109b), respectively, the horizontal members being made of a bendable material, whereby the cross member limits bowing of the horizontal members under the weight of the chassis.
Electromagnetic trip switch comprising a U-shaped armature whose ends form two pole surfaces, a palette pivoting with respect to the armature, able to be brought onto the said pole surfaces so as to close the magnetic circuit consisting of the armature and the palette, a permanent magnet for polarizing the magnetic circuit, a trip coil surrounding the magnetic circuit able to counteract the force of the magnet so as to displace the palette, a reset pin for rearming the palette, a blade fixed on the palette intended to damp the impact of the reset loads and a return spring for the palette, characterized in that the aforementioned blade comprises two lugs (17,18) extending on either side of the palette and comprising hinge pivots (24,25) for articulating the palette with respect to the armature A, the lugs and the pivots being integral with the blade, and the said lugs being housed in a housing provided at the end of one of the wings (5,6) of the armature A.
Soundproofing structure for aircrafts, which comprises at least one front barrier and two side barriers, wherein each side barrier is diverting from the front barrier, and each side barrier is arranged in such a way towards one of the ends of the front barrier that the angle formed between each side barrier and the front barrier is greater than 90°, characterized in that each side barrier extends continuously in a given direction, thereby forming an increasing opening as one runs along the side barrier, and in that the structure is an expandable structure and in that the free ends of each one of the side barriers are suitable to be expanded.
A frequency divider comprising: a first oscillating input node; a low power frequency divider coupled to the first oscillating input node, wherein the low power frequency divider generates a first enable signal in response to an oscillating input signal present on the first oscillating input node; and a high speed latch coupled to the first oscillating input node and the low power frequency divider, wherein the high speed latch generates an output signal in response to the oscillating input signal and the first enable signal, wherein the output signal is divided in frequency from the oscillating input signal; characterised in that the frequency divider comprises a plurality of divider transistors and the latch comprises a plurality of latch transistors, the latch transistor being physically larger relative to the of divider transistors; and in that approximately half of a current at the first oscillating input node is directed to the frequency divider and remaining current is directed to the latch. a first oscillating input node; a low power frequency divider coupled to the first oscillating input node, wherein the low power frequency divider generates a first enable signal in response to an oscillating input signal present on the first oscillating input node; and a high speed latch coupled to the first oscillating input node and the low power frequency divider, wherein the high speed latch generates an output signal in response to the oscillating input signal and the first enable signal, wherein the output signal is divided in frequency from the oscillating input signal; characterised in that the frequency divider comprises a plurality of divider transistors and the latch comprises a plurality of latch transistors, the latch transistor being physically larger relative to the of divider transistors; and in that approximately half of a current at the first oscillating input node is directed to the frequency divider and remaining current is directed to the latch.
A method for operating an elevator having a car driven by a motor and at least one electromagnetic brake (14;16) to stop the car, the method comprising the steps of: closing a brake; supplying electrical current to the brake up to a preset verification level (I ver); and determining whether there has been any movement. closing a brake; supplying electrical current to the brake up to a preset verification level (I ver); and determining whether there has been any movement.