mhurhangee/ep-ind-claims huggingface dataset:
A method of making a hoist cable capable of continuous resistance monitoring, the method comprising: applying an electrically-insulating material to at least one strand (26, 28) of a wire rope such that a length of the at least one strand (26, 28) is electrically insulated, and a first end of the at least one strand (26, 28) is electrically conductive; joining the first end of the at least one strand to a free end of the wire rope such that the at least two strands (26, 28) of the wire rope are electrically connected at the free end; applying the electrically-insulating material to each strand of the wire rope such that a length of each strand is electrically insulated, and a first end of each strand is electrical conductive; joining the first ends of at least two strands at the free end of the wire rope such that the at least two strands are electrically connected at the free end; arranging a core strand centrally with respect to a plurality of outer strands; and characterized in that each strand has a discrete layer of the electrically-insulating material disposed around an outer periphery thereof, and wherein the discrete layers of each outer strand contact the discrete layer of the core strand and the discrete layers of two adjacent outer strands; and wherein the first ends are joined at the free end such that all of the strands (26, 28) are electrically connected to each other. applying an electrically-insulating material to at least one strand (26, 28) of a wire rope such that a length of the at least one strand (26, 28) is electrically insulated, and a first end of the at least one strand (26, 28) is electrically conductive; joining the first end of the at least one strand to a free end of the wire rope such that the at least two strands (26, 28) of the wire rope are electrically connected at the free end; applying the electrically-insulating material to each strand of the wire rope such that a length of each strand is electrically insulated, and a first end of each strand is electrical conductive; joining the first ends of at least two strands at the free end of the wire rope such that the at least two strands are electrically connected at the free end; arranging a core strand centrally with respect to a plurality of outer strands; and characterized in that each strand has a discrete layer of the electrically-insulating material disposed around an outer periphery thereof, and wherein the discrete layers of each outer strand contact the discrete layer of the core strand and the discrete layers of two adjacent outer strands; and wherein the first ends are joined at the free end such that all of the strands (26, 28) are electrically connected to each other.
A method comprising: allocating (S6.1) a first IP address to a first interface of a client device for data communications using a first sub-flow over a first path, wherein the first IP address is allocated responsive to a first request from the client device; sending the first IP address to the client device; allocating (S6.2) a second IP address to a second interface of the client device for data communications using a second sub-flow over a second, different path, the second IP address being associated with the first IP address, wherein the second IP address is allocated responsive to a second request from the client device, the second request including a first association key; identifying the first association key in the second request; using the first client association key to identify a device-specific pool of IP addresses associated with the client device, wherein the first and second IP addresses are allocated from the device-specific pool of IP addresses; sending the second IP address to the client device; and sending (S6.3) information relating to the allocated first and second IP addresses for the client device to an aggregating device for aggregating the first and second sub-flows, when received from the client device, for providing aggregated data to a destination device. allocating (S6.1) a first IP address to a first interface of a client device for data communications using a first sub-flow over a first path, wherein the first IP address is allocated responsive to a first request from the client device; sending the first IP address to the client device; allocating (S6.2) a second IP address to a second interface of the client device for data communications using a second sub-flow over a second, different path, the second IP address being associated with the first IP address, wherein the second IP address is allocated responsive to a second request from the client device, the second request including a first association key; identifying the first association key in the second request; using the first client association key to identify a device-specific pool of IP addresses associated with the client device, wherein the first and second IP addresses are allocated from the device-specific pool of IP addresses; sending the second IP address to the client device; and sending (S6.3) information relating to the allocated first and second IP addresses for the client device to an aggregating device for aggregating the first and second sub-flows, when received from the client device, for providing aggregated data to a destination device.
A gas supply control system comprising: an actuation system including an electromagnetic actuator (6, 200, 300) comprising an armature (8, 208) comprising a permanent magnet (12, 208), two coils (30, 32; 232, 234), and two coil cores (34, 36; 236, 238), each of which extends within a respective coil, wherein the armature is moveable relative to the coils between first and second stable rest positions by passing a current through at least one of the coils, and in each rest position, the armature is closer to one of the coil cores than the other of the coil cores and is spaced by a gap from the closer coil core; a gas supply controller for selectively sending electrical control pulses to the coils of the actuator to switch the armature between the first and second positions; and a valve (2, 134) mechanically coupled to the armature of the actuator so that the valve is operable by the actuator, wherein the gas supply controller is configured to receive a pressure signal from a pressure sensor. an actuation system including an electromagnetic actuator (6, 200, 300) comprising an armature (8, 208) comprising a permanent magnet (12, 208), two coils (30, 32; 232, 234), and two coil cores (34, 36; 236, 238), each of which extends within a respective coil, wherein the armature is moveable relative to the coils between first and second stable rest positions by passing a current through at least one of the coils, and in each rest position, the armature is closer to one of the coil cores than the other of the coil cores and is spaced by a gap from the closer coil core; a gas supply controller for selectively sending electrical control pulses to the coils of the actuator to switch the armature between the first and second positions; and a valve (2, 134) mechanically coupled to the armature of the actuator so that the valve is operable by the actuator, wherein the gas supply controller is configured to receive a pressure signal from a pressure sensor.
A removable tip device configured to releasably engage a bone coring device having a distal cutting edge, the removable tip device comprising: an outer sleeve defining an interior having a longitudinal axis extending between a distal end region and a proximal end region of the outer sleeve; a bone penetration feature extending from the distal end region of the outer sleeve, the bone penetration feature being a sharp distal cutting tip configured to penetrate a layer of bone; a compliant protective element positioned within the interior of the outer sleeve, the protective element providing a proximal-facing protective surface resistant to tearing during application of a longitudinal or torsional load;_and a securing feature having a first end region extending at least partially within the interior of the outer sleeve and a second end region projecting proximal to the proximal end region of the outer sleeve, the securing feature deflectable relative to the longitudinal axis of the outer sleeve. an outer sleeve defining an interior having a longitudinal axis extending between a distal end region and a proximal end region of the outer sleeve; a bone penetration feature extending from the distal end region of the outer sleeve, the bone penetration feature being a sharp distal cutting tip configured to penetrate a layer of bone; a compliant protective element positioned within the interior of the outer sleeve, the protective element providing a proximal-facing protective surface resistant to tearing during application of a longitudinal or torsional load;_and a securing feature having a first end region extending at least partially within the interior of the outer sleeve and a second end region projecting proximal to the proximal end region of the outer sleeve, the securing feature deflectable relative to the longitudinal axis of the outer sleeve.
A power conversion apparatus comprising: an electrical circuit including a heat source; a heat pipe cooler in which a refrigerant is enclosed and the thermal radiation fins are provided, the heat pipe cooler cooling the heat source; characterized by: a dividing plate dividing a space where the heat source is provided from a space where the thermal radiation fins are provided; freeze determination means for determining whether the refrigerant is frozen, based on a temperature of the space where the thermal radiation fins are provided, which is divided by the dividing plate; and output limitation means for limiting output of the power conversion apparatus when the freeze determination unit determines that the refrigerant is frozen, at least one device including the electrical circuit being allocated so as to heat the heat pipe cooler. an electrical circuit including a heat source; a heat pipe cooler in which a refrigerant is enclosed and the thermal radiation fins are provided, the heat pipe cooler cooling the heat source; characterized by: a dividing plate dividing a space where the heat source is provided from a space where the thermal radiation fins are provided; freeze determination means for determining whether the refrigerant is frozen, based on a temperature of the space where the thermal radiation fins are provided, which is divided by the dividing plate; and output limitation means for limiting output of the power conversion apparatus when the freeze determination unit determines that the refrigerant is frozen, at least one device including the electrical circuit being allocated so as to heat the heat pipe cooler. a dividing plate dividing a space where the heat source is provided from a space where the thermal radiation fins are provided; freeze determination means for determining whether the refrigerant is frozen, based on a temperature of the space where the thermal radiation fins are provided, which is divided by the dividing plate; and output limitation means for limiting output of the power conversion apparatus when the freeze determination unit determines that the refrigerant is frozen, at least one device including the electrical circuit being allocated so as to heat the heat pipe cooler.
A process for preparing a compound represented by formula, comprising: and wherein, R is a C 1-5 alkyl; HA is an organic or inorganic acid; the ammonia source is HMDS and/or formamide; R 1 is an amino protecting group; X is a halogen; the metal catalyst is a palladium metal catalyst and/or a copper metal catalyst; the ligand is a phosphine-containing ligand coordinated to a palladium metal catalyst and/or a nitrogen-containing ligand coordinated to a copper metal catalyst; the base is an alkali metal base, an alkaline earth metal base, an organic base and/or an organometallic base. R is a C 1-5 alkyl; HA is an organic or inorganic acid; the ammonia source is HMDS and/or formamide; R 1 is an amino protecting group; X is a halogen; the metal catalyst is a palladium metal catalyst and/or a copper metal catalyst; the ligand is a phosphine-containing ligand coordinated to a palladium metal catalyst and/or a nitrogen-containing ligand coordinated to a copper metal catalyst; the base is an alkali metal base, an alkaline earth metal base, an organic base and/or an organometallic base.
A transportable advertising carrier, which is formed from at least one standardized large-storage- or transport container, wherein each container has a supporting structure framework, which is constructed from a plurality of lower (201, 203) and upper (204, 205) horizontal and vertical frame rails which are connected to one another, define the edges of the container and/or the supporting structure framework, which surround or enclose the usually present four side walls (401, 402, 403, 404), and ceiling wall of the container wherein at least one advertising-surface element is provided which is arranged on the supporting structure framework, characterized in that the advertising carrier can be converted reversibly from a compact transport configuration into a presentation configuration which is different structurally from the transport configuration, - wherein, in the transport configuration, at least one of the side walls (401, 402, 403, 404) and/or the ceiling wall of the container is removed and replaced at least partially by at least one first advertising-surface element, and - wherein, in the presentation configuration, the height of the container is increased by extension of the vertical frame rails, as a result of which additional available upper surface regions (401 a', 402a', 403a', 404a') are exposed in the upper region, wherein at least one second advertising-surface element is inserted at least partially into at least one of said upper surface regions (401 a', 402a', 403a', 404a'). - wherein, in the transport configuration, at least one of the side walls (401, 402, 403, 404) and/or the ceiling wall of the container is removed and replaced at least partially by at least one first advertising-surface element, and - wherein, in the presentation configuration, the height of the container is increased by extension of the vertical frame rails, as a result of which additional available upper surface regions (401 a', 402a', 403a', 404a') are exposed in the upper region, wherein at least one second advertising-surface element is inserted at least partially into at least one of said upper surface regions (401 a', 402a', 403a', 404a').
An X-ray sensor for a target having a curvature, comprising: a flexible array substrate including a semiconductor layer having a light-receiving element and a semiconductor substrate on a rear surface of the semiconductor layer; a scintillator panel bonded to the flexible array substrate and including a scintillator layer; a first flexible layer attached to an outer surface of the flexible array substrate; a second flexible layer attached to an outer surface of the scintillator panel; and an adhesive layer disposed between the flexible array substrate and the scintillator panel so as to attach the flexible array substrate and the scintillator panel to each other, and the X-ray sensor is bendable so as to be adapted for the curvature of the target, characterized in that the flexible array substrate further includes a driving element layer between the semiconductor layer and the adhesive layer, a thickness of the semiconductor substrate and the semiconductor layer together is about 10 μm ∼ about 150 μm, and the first and second flexible layers (160, 220) function to minimize fatigue due to bending of the X-ray sensor. a flexible array substrate including a semiconductor layer having a light-receiving element and a semiconductor substrate on a rear surface of the semiconductor layer; a scintillator panel bonded to the flexible array substrate and including a scintillator layer; a first flexible layer attached to an outer surface of the flexible array substrate; a second flexible layer attached to an outer surface of the scintillator panel; and an adhesive layer disposed between the flexible array substrate and the scintillator panel so as to attach the flexible array substrate and the scintillator panel to each other, and the X-ray sensor is bendable so as to be adapted for the curvature of the target, characterized in that the flexible array substrate further includes a driving element layer between the semiconductor layer and the adhesive layer, a thickness of the semiconductor substrate and the semiconductor layer together is about 10 μm ∼ about 150 μm, and the first and second flexible layers (160, 220) function to minimize fatigue due to bending of the X-ray sensor.
Use of a photosensitive transparent composition for preparing a color filter of a solid-state imaging device, wherein the photosensitive transparent composition contains: a photopolymerization initiator, a polymerizable compound, an alkali-soluble resin, and an inorganic fine particle which contains oxides of one member or two or more members selected from the group consisting of Si, Ti, Zr, A1 and Sn, wherein the refractive index of the inorganic fine particle is from 1.6 to 2.8, and wherein the cured film obtained from the photosensitive transparent composition has a refractive index of 1.60 to 1.90 for light at a wavelength of 633 nm. a photopolymerization initiator, a polymerizable compound, an alkali-soluble resin, and an inorganic fine particle which contains oxides of one member or two or more members selected from the group consisting of Si, Ti, Zr, A1 and Sn,
Locking device between a first and second element intended to slide relative to one another along a longitudinal axis, the first element being arranged in the second element, the first element being at least partially hollow and the second element comprising at least one cavity (23, 25) in the internal surface thereof, characterized in that the first element comprises at least one track extending from an internal zone of the first element and opening into an external lateral surface (12.1) of the first element, the internal lateral surface of the second element surrounding the external lateral surface (12.1) of the first element, at least one ball being housed in the track, an actuator being suitable for forcing the ball to move in the track towards the outside of the first element such that, in the unlocked state, said ball is housed entirely in the track, the first and second element being free to slide relative to one another, and, in the locked state, said ball is housed partially in the track and partially in the cavity (23, 25) of the second element preventing the relative sliding of the first and second element, said ball being held in this position while the actuator is activated.
A laser system operationally coupled to an aimable device having a Line of Sight, the system adapted for providing a graphic laser display, the system comprising: (a) one laser source adapted to generate: (i) a first laser output, said first laser output displaying a fixed pattern at a laser dot hit point having a fixed orientation relative to an axis of the LOS of the aimable device, and (ii) and a second laser output, said second laser output drawing the graphic laser display on a remote surface, said graphic laser display is a result of said second output being very rapidly projected or reflected at different points, wherein the movement between the points is so rapid that the human eye perceives a single image; (b) a motion control mechanism adapted to direct at least said second laser output; (c) a tracking system configured to track at least one target; and (d) a processing unit, said processing unit configured to receive tracking data relating to a location of said at least one target relative to the LOS of the aimable device and instruct said motion control mechanism to direct said second laser output to draw the graphic laser display on said at least one target. (a) one laser source adapted to generate: (i) a first laser output, said first laser output displaying a fixed pattern at a laser dot hit point having a fixed orientation relative to an axis of the LOS of the aimable device, and (ii) and a second laser output, said second laser output drawing the graphic laser display on a remote surface, said graphic laser display is a result of said second output being very rapidly projected or reflected at different points, wherein the movement between the points is so rapid that the human eye perceives a single image; (i) a first laser output, said first laser output displaying a fixed pattern at a laser dot hit point having a fixed orientation relative to an axis of the LOS of the aimable device, and (ii) and a second laser output, said second laser output drawing the graphic laser display on a remote surface, said graphic laser display is a result of said second output being very rapidly projected or reflected at different points, wherein the movement between the points is so rapid that the human eye perceives a single image; (b) a motion control mechanism adapted to direct at least said second laser output; (c) a tracking system configured to track at least one target; and (d) a processing unit, said processing unit configured to receive tracking data relating to a location of said at least one target relative to the LOS of the aimable device and instruct said motion control mechanism to direct said second laser output to draw the graphic laser display on said at least one target.
A pit pump to be used within a pit containing drilling fluid for use with drilling operations performed by a drilling system, the pit pump comprising: a pump portion with an inlet, an outlet, and a pump impeller for pumping drilling fluid from the inlet to the outlet; an electric drive motor in driving engagement with the pump impeller to drive the pump impeller, the electric drive motor includes a motor housing; a cooling liquid inlet in the motor housing through which a cooling liquid can be input for cooling the electric drive motor; and a cooling liquid outlet in the motor housing through which cooling liquid can be output after cooling the electric drive motor; characterized in that the electric drive motor is reversible whereby a rotation direction of the impeller can be reversed and a flow of fluid through the pump portion can be reversed. a pump portion with an inlet, an outlet, and a pump impeller for pumping drilling fluid from the inlet to the outlet; an electric drive motor in driving engagement with the pump impeller to drive the pump impeller, the electric drive motor includes a motor housing; a cooling liquid inlet in the motor housing through which a cooling liquid can be input for cooling the electric drive motor; and a cooling liquid outlet in the motor housing through which cooling liquid can be output after cooling the electric drive motor; characterized in that the electric drive motor is reversible whereby a rotation direction of the impeller can be reversed and a flow of fluid through the pump portion can be reversed.