mhurhangee/ep-ind-claims huggingface dataset:
A method of providing a liquid proof joint, comprising: providing a first part made of concrete, having a first joint surface that is provided with a first edge inset (11, 11') of a first polymer based material, said edge inset (11, 11') extending along said joint, providing a second part having a second joint surface comprising a second polymer based material and extending along said joint, arranging the parts (1, 2) with the first and second joint surfaces (10,20) adjacent each other, and welding or gluing the first joint surface of the first part to the second joint surface of the second part along the joint to provide the liquid proof joint, wherein the first edge inset (11, 11') comprises a face portion that forms part of the first joint surface of the first part and a fixing portion (112. 112') which extends from the first joint surface and is recessed into the first part, and characterized by the method further comprising connecting the fixing portion (112, 112') to a reinforcement of the associated first part. providing a first part made of concrete, having a first joint surface that is provided with a first edge inset (11, 11') of a first polymer based material, said edge inset (11, 11') extending along said joint, providing a second part having a second joint surface comprising a second polymer based material and extending along said joint, arranging the parts (1, 2) with the first and second joint surfaces (10,20) adjacent each other, and welding or gluing the first joint surface of the first part to the second joint surface of the second part along the joint to provide the liquid proof joint, wherein the first edge inset (11, 11') comprises a face portion that forms part of the first joint surface of the first part and a fixing portion (112. 112') which extends from the first joint surface and is recessed into the first part, and
Process for dewatering of a slurry comprising microfibrillated cellulose wherein the process comprises the following steps: - providing a slurry comprising microfibrillated cellulose and liquid, - subjecting the slurry to an electric field inducing the liquid of the slurry to flow and - separating the liquid from the microfibrillated cellulose. - providing a slurry comprising microfibrillated cellulose and liquid, - subjecting the slurry to an electric field inducing the liquid of the slurry to flow and - separating the liquid from the microfibrillated cellulose.
An image forming apparatus, comprising: a discharge port that is provided in an apparatus body and through which a sheet on which an image has been formed is discharged from one side toward another side in a left-right direction; an in-body discharge space that is provided on a downstream side of the discharge port in a discharge direction and is open on a downstream side in the discharge direction and on an apparatus body front surface side; and a discharge portion that is provided in the in-body discharge space and on which the sheet discharged is loaded, a lifting piece that protrudes upward beyond an upper surface of the discharge portion, the lifting piece has a loading surface on which the sheet is loaded, and a rear surface that is disposed on an opposite side to the loading surface, and the rear surface is formed in a dark color, characterized in that the lifting piece is provided at a part of the discharge portion on the downstream side in the discharge direction and on the apparatus body front surface side, the loading surface is inclined upward toward the downstream side in the discharge direction and the apparatus body front surface side, and faces an upstream side in the discharge direction and an apparatus body rear surface side, so that the lifting piece lifts a corner portion of the sheet. a discharge port that is provided in an apparatus body and through which a sheet on which an image has been formed is discharged from one side toward another side in a left-right direction; an in-body discharge space that is provided on a downstream side of the discharge port in a discharge direction and is open on a downstream side in the discharge direction and on an apparatus body front surface side; and a discharge portion that is provided in the in-body discharge space and on which the sheet discharged is loaded, a lifting piece that protrudes upward beyond an upper surface of the discharge portion, the lifting piece has a loading surface on which the sheet is loaded, and a rear surface that is disposed on an opposite side to the loading surface, and the rear surface is formed in a dark color, characterized in that the lifting piece is provided at a part of the discharge portion on the downstream side in the discharge direction and on the apparatus body front surface side, the loading surface is inclined upward toward the downstream side in the discharge direction and the apparatus body front surface side, and faces an upstream side in the discharge direction and an apparatus body rear surface side, so that the lifting piece lifts a corner portion of the sheet.
An electrode leadless implantable heart stimulator comprising an acceleration sensor that delivers an acceleration signal as an output signal, wherein the acceleration sensor is a sum signal of a component caused by an intrinsic heart movement and of a component caused by a body movement and the acceleration signal is connected to an activity determination unit which is configured to generate an activity signal from the acceleration signal as a result of the activity determination unit subtracting the component of the acceleration signal caused by the intrinsic heart movement from the acceleration signal, characterised in that the acceleration signal is a signed signal and the activity determination unit for generation of the activity signal is configured to integrate the acceleration signal over a predefined period of time in order to thus form an acceleration integral.
Rail for a rail system for welding tables including a base rail, which is configured for fastening on or in a floor and has multiple openings which correspond to the openings of the welding tables, whereby a round rail is fastened in a recess of the base rail, characterized in that the rail has a tilt protection recess, which includes a tilt protection edge and is configured for interaction with a tilt protection device of a caster, whereby the tilt protection recess is arranged in the topside of the rail and the tilt protection edge is formed by a tilt protection strip, which is detachably fastened to the rail and partially covers the tilt protection recess.
An electrical contactor for switching a load current having an AC waveform, comprising: a fixed electrical contact, a movable electrical contact, an magnetic latching electrical actuator having a drive coil drivable for opening and closing the movable and fixed electrical contacts (32, 50), and a power supply, wherein the power supply includes a controller for outputting truncated-waveform drive pulses to the electrical actuator, so as to prevent contact separation prior to a peak in the AC waveform of the load current; and wherein the controller synchronizes a dynamic delay of an opening and/or closing time of the contacts (32, 50) of the electrical contactor with a zero-crossing point of a load waveform of the drive pulse; and characterized in that the drive coil comprises a first drive coil drivable to open and close the movable and fixed electrical contacts (32, 50), and a second non-drive coil which is feedback connected to an AC common centre of the drive coil to induce a reverse flux to temper and stabilize a nett flux, thereby enabling control of a delay time of the opening and closing of the electrical contacts (32, 50).
A switching power supply comprising: a power stage (116, 236) that is configured to provide an output signal (VOUT) in response to a switching signal; a feedback loop (120, 240, 248) that is configured to monitor the output signal (VOUT) and to provide a feedback error signal to adjust the switching signal to regulate the output signal (VOUT); and a simulated feedback error generator that is configured to temporarily provide a simulated feedback error signal during a transition period from a low power mode to a high power mode of the switching power supply until the feedback loop (120, 240, 248) has enough time to provide the feedback error signal; a low power mode controller (118, 230); wherein during the low power mode only the power stage (116, 236) and the low power mode controller are active and the high power mode begins with powering on components that were powered off during the low power mode, the low power mode controller is configured to disable the feedback loop (120, 240, 248) during the low power mode and to supply the switching signal to the power stage (116, 236) during the low power mode, wherein in the high power mode the low power mode controller and the simulated feedback error signal produced by the simulated feedback error generator are disabled. a power stage (116, 236) that is configured to provide an output signal (VOUT) in response to a switching signal; a feedback loop (120, 240, 248) that is configured to monitor the output signal (VOUT) and to provide a feedback error signal to adjust the switching signal to regulate the output signal (VOUT); and a simulated feedback error generator that is configured to temporarily provide a simulated feedback error signal during a transition period from a low power mode to a high power mode of the switching power supply until the feedback loop (120, 240, 248) has enough time to provide the feedback error signal; a low power mode controller (118, 230); wherein during the low power mode only the power stage (116, 236) and the low power mode controller are active and the high power mode begins with powering on components that were powered off during the low power mode, the low power mode controller is configured to disable the feedback loop (120, 240, 248) during the low power mode and to supply the switching signal to the power stage (116, 236) during the low power mode,
Hygienic Protector for male urination that comprise a hollow tube of an absorbent and elastic textile material that it has one or more fins arranged on the outer surface of the referred hollow tube wherein the surface of the tube has of a plurality of evenly distributed longitudinal folds characterised in that the end to be in contact with the glans is folded towards the inside of the referred tube and the portion tube bending inward it has a plurality of circumferential folds.
An upper of a shoe covering at least a portion of a foot, the upper comprising: a medial side portion covering a medial side surface of the foot; a lateral side portion covering a lateral side surface of the foot; and a plurality of panels provided in the medial side portion and/or the lateral side portion, separated from one another in a longitudinal direction of the foot, and covering at least a portion of a side surface of the foot, wherein the panels are pulled by a fastening member toward a central portion between a medial side and a lateral side of the foot, characterized in that the upper further comprising: a plurality of string-shaped non-elongatable string portions extending in the longitudinal direction, the string portions placed between a pair of the plurality of panels that are adjacent to each other in the longitudinal direction, wherein a gap exists between the string portions and that are adjacent to each other in an up-down direction. a medial side portion covering a medial side surface of the foot; a lateral side portion covering a lateral side surface of the foot; and a plurality of panels provided in the medial side portion and/or the lateral side portion, separated from one another in a longitudinal direction of the foot, and covering at least a portion of a side surface of the foot, wherein the panels are pulled by a fastening member toward a central portion between a medial side and a lateral side of the foot, characterized in that the upper further comprising: a plurality of string-shaped non-elongatable string portions extending in the longitudinal direction, the string portions placed between a pair of the plurality of panels that are adjacent to each other in the longitudinal direction, wherein a gap exists between the string portions and that are adjacent to each other in an up-down direction. a plurality of string-shaped non-elongatable string portions extending in the longitudinal direction, the string portions placed between a pair of the plurality of panels that are adjacent to each other in the longitudinal direction, wherein a gap exists between the string portions and that are adjacent to each other in an up-down direction.
A device housing for an IMD, comprising: - a front side, - a flat end face that is arranged perpendicularly to the front side and adjoins a straight upper edge of the front side, - the front side having a maximum width (Bmax) that is measured in parallel with the straight upper edge and a maximum height (Hmax) that is measured perpendicularly to the straight upper edge, - the ratio of the surface area of the front side to the surface area of a rectangle that is spanned by the maximum width (Bmax) and the maximum height (Hmax), surface area front side surface area rectangle, being at least 0.6, characterized in that the ratio R of maximum width (Bmax) to maximum height (Hmax), i.e. Bmax/Hmax, has a value between 1.2 and 1.275, and the IMD being an implantable cardioverter defibrillator, or a CRT device. - a front side, - a flat end face that is arranged perpendicularly to the front side and adjoins a straight upper edge of the front side, - the front side having a maximum width (Bmax) that is measured in parallel with the straight upper edge and a maximum height (Hmax) that is measured perpendicularly to the straight upper edge, - the ratio of the surface area of the front side to the surface area of a rectangle that is spanned by the maximum width (Bmax) and the maximum height (Hmax), surface area front side surface area rectangle, being at least 0.6, characterized in that the ratio R of maximum width (Bmax) to maximum height (Hmax), i.e. Bmax/Hmax, has a value between 1.2 and 1.275, and the IMD being an implantable cardioverter defibrillator, or a CRT device.
Switching contact (6, 6', 6", 6"') for an electrical switching device (1, 1') having a leaf spring-like actuation section (13, 13', 13", 13"'), wherein the actuation section (13, 13', 13", 13'") is less rigid in a switching direction than in a counter switching direction (S') running counter to the switching direction, the switching direction being a direction of movement of the switching contact (6, 6', 6", 6"') towards at least one counter contact (17, 17', 17") and the counter switching direction (S') being a direction of movement of the switching contact (6, 6', 6", 6"') away from the at least one counter contact (17, 17', 17"), wherein the actuation section (13, 13', 13", 13"') has a brace structure (29, 29', 29", 29'") that is formed as a bend in an edge area (30, 30', 30", 30'") of the switching contact (6, 6', 6", 6'"), and wherein the actuation section (13, 13', 13", 13'") comprises a first spring element (6a, 6a', 6a", 6a'") and at least one additional spring element (6b, 6b', 6b", 6b'"), which run, at least in sections, substantially along a longitudinal extension of the actuation section (13, 13', 13", 13'"), and wherein the first spring element (6a, 6a', 6a", 6a'") has a lower rigidity, substantially perpendicularly to the longitudinal extension, than the at least one additional spring element (6b, 6b', 6b", 6b"'), characterised in that the first spring element (6a, 6a', 6a", 6a"') and the at least one additional spring element (6b, 6b", 6b", 6b"") abut one another while the first spring element (6a, 6a', 6a", 6a"') faces in the switching direction and the at least one additional spring element (6b, 6b', 6b", 6b"') faces in the counter switching direction (S').
A method for facilitating Machine Type Communication, MTC, in a wireless communications system, the method comprising: receiving information regarding one or more locations of one or more MTC-specific system information blocks over an MTC physical broadcast channel; receiving the one or more MTC-specific system information blocks at an MTC device; and processing the one or more MTC-specific system information blocks at the MTC device, wherein one of the MTC-specific system information blocks comprises a combination of system information included in two or more other system information blocks by removing a portion from at least one of the two or more other system information blocks. receiving information regarding one or more locations of one or more MTC-specific system information blocks over an MTC physical broadcast channel; receiving the one or more MTC-specific system information blocks at an MTC device; and processing the one or more MTC-specific system information blocks at the MTC device, wherein one of the MTC-specific system information blocks comprises a combination of system information included in two or more other system information blocks by removing a portion from at least one of the two or more other system information blocks.
Vehicle, in particular automotive vehicle, comprising a hybrid combustion engine/hydraulic power train comprising a combustion engine, at least one hydraulic motor, a hydraulic pump which is able to supply hydraulic pressure to the hydraulic motor, a mechanical transmission system of hydraulic origin and a mechanical transmission system of thermal origin capable of transmitting a mechanical power of thermal, hydraulic or mixed origin to the drive wheels of the vehicle according to specific gear ratios, the mechanical transmission system of hydraulic origin comprising: - a primary hydraulic shaft coupled to the hydraulic motor, capable of transmitting the mechanical power of hydraulic origin to the drive wheels of the vehicle according to at least one specific gear ratio; the mechanical transmission system of thermal origin comprising: - a pump shaft coupled to the pump; - a combustion engine shaft coupled to the combustion engine; - a primary combustion power shaft separate from the combustion engine shaft, coupled to the shaft of the combustion engine and capable of transmitting the mechanical power of thermal origin to the drive wheels of the vehicle according to at least one specific gear ratio, the primary combustion power shaft being capable of being coupled to the pump shaft; - a power distributor coupled between the shaft of the combustion engine, the primary combustion power shaft and the pump shaft; the shaft of the combustion engine, the primary combustion power shaft and the pump shaft being coaxial, the vehicle being characterised in that the hybrid power train comprises two hydraulic motors of specific power, each of the ends of the primary hydraulic shaft being respectively coupled to one of the two hydraulic motors. - a primary hydraulic shaft coupled to the hydraulic motor, capable of transmitting the mechanical power of hydraulic origin to the drive wheels of the vehicle according to at least one specific gear ratio; - a pump shaft coupled to the pump; - a combustion engine shaft coupled to the combustion engine; - a primary combustion power shaft separate from the combustion engine shaft, coupled to the shaft of the combustion engine and capable of transmitting the mechanical power of thermal origin to the drive wheels of the vehicle according to at least one specific gear ratio, the primary combustion power shaft being capable of being coupled to the pump shaft; - a power distributor coupled between the shaft of the combustion engine, the primary combustion power shaft and the pump shaft; the shaft of the combustion engine, the primary combustion power shaft and the pump shaft being coaxial,
A garbage collection watercraft comprising: a hull; at least one collection box (3, 4) including an intake port for a garbage, the collection box (3, 4) being movably held by the hull to a collection position in which the collection box is at least partially located underwater and a pull-up position located higher than the collection position with regard to an up-down direction of the hull; and a buoyant material (31, 32) that is attached to the collection box (3, 4), characterized in that the buoyant material (31, 32) is configured to raise the collection box (3, 4) from the collection position to the pull-up position by a buoyant force. a hull; at least one collection box (3, 4) including an intake port for a garbage, the collection box (3, 4) being movably held by the hull to a collection position in which the collection box is at least partially located underwater and a pull-up position located higher than the collection position with regard to an up-down direction of the hull; and a buoyant material (31, 32) that is attached to the collection box (3, 4), characterized in that the buoyant material (31, 32) is configured to raise the collection box (3, 4) from the collection position to the pull-up position by a buoyant force.
A computer implemented method executed by a single computing entity for optimizing drilling and surface arrangements throughout a target field, the method comprising: receiving, by a computer system, a complex fracture model (104,210) that estimates fractures in a subsurface target of the target field; applying the complex fracture model to a reservoir model that estimates subsurface geological features between the subsurface target and earth's surface; receiving a surface culture grid model representing surface features of the target field; receiving a well planning criteria model comprising completion methods, frac characteristics, well deviation information, and/or cost considerations; determining a location for an earth surface well site and a well path from the earth surface well site to the subsurface target based on the complex fracture model, the surface culture grid model, the well planning criteria model and the estimated subsurface geological features, wherein the earth surface well site is offset from the subsurface target, wherein the complex fracture model estimates orientation, dip, and spacing of fractures in the subsurface target, or the complex fracture model estimates the fractures in the subsurface target based on microseismic data; and determining a fracture conductivity distribution based on stress and fracability estimates. receiving, by a computer system, a complex fracture model (104,210) that estimates fractures in a subsurface target of the target field; applying the complex fracture model to a reservoir model that estimates subsurface geological features between the subsurface target and earth's surface; receiving a surface culture grid model representing surface features of the target field; receiving a well planning criteria model comprising completion methods, frac characteristics, well deviation information, and/or cost considerations; determining a location for an earth surface well site and a well path from the earth surface well site to the subsurface target based on the complex fracture model, the surface culture grid model, the well planning criteria model and the estimated subsurface geological features, wherein the earth surface well site is offset from the subsurface target, wherein the complex fracture model estimates orientation, dip, and spacing of fractures in the subsurface target, or the complex fracture model estimates the fractures in the subsurface target based on microseismic data; and determining a fracture conductivity distribution based on stress and fracability estimates.