mhurhangee/ep-ind-claims huggingface dataset:
An insertion tool (10, 40) for co-operation with a dental implant, said implant having at least one anti-rotation surface, the insertion tool extending along a longitudinal axis and comprising at its distal end a resilient sleeve (3, 43), said sleeve comprising at least one torque transmission surface and being adjustable between a first, rest position, and a second, stressed position, wherein the location of the at least one torque transmission surface is different in the first and second positions, the insertion tool further comprising an actuation means arranged to selectively engage with the sleeve in order to adjust this between the first and second positions, the tool being arranged such that, in use, adjustment of the sleeve from the first to second position enables a better contact between the at least one anti-rotation surface and the at least one torque transmission surface, characterised in that the actuation means comprises a cam shaft, said cam shaft having a non circular cross-section, the actuation means being arranged for rotational actuation, such that the sleeve (3, 43) is adjusted from the first to the second position by relative rotational movement of the actuation means while the actuation means is in axial alignment with the sleeve. the insertion tool extending along a longitudinal axis and comprising at its distal end a resilient sleeve (3, 43), said sleeve comprising at least one torque transmission surface and being adjustable between a first, rest position, and a second, stressed position, wherein the location of the at least one torque transmission surface is different in the first and second positions, the insertion tool further comprising an actuation means arranged to selectively engage with the sleeve in order to adjust this between the first and second positions, the tool being arranged such that, in use, adjustment of the sleeve from the first to second position enables a better contact between the at least one anti-rotation surface and the at least one torque transmission surface, characterised in that the actuation means comprises a cam shaft, said cam shaft having a non circular cross-section, the actuation means being arranged for rotational actuation, such that the sleeve (3, 43) is adjusted from the first to the second position by relative rotational movement of the actuation means while the actuation means is in axial alignment with the sleeve.
A toothbrush for use by an operator and capable of being connected to a suction device, the toothbrush comprising: a head; a handle coupled to the head; and a suction assembly coupled to one of the head and the handle and configured to be coupled to the suction device, the suction assembly moveable along a length of one of the head and the handle, characterized in that the handle includes a track, and the suction assembly includes a slider that is moveable back and forth along the track. a head; a handle coupled to the head; and a suction assembly coupled to one of the head and the handle and configured to be coupled to the suction device, the suction assembly moveable along a length of one of the head and the handle,
Assembly of a wire that prevents the pedals of a vehicle from moving up when the said vehicle experiences a frontal impact, and of a support of a pedal impactor fixed to a dash panel crossmember, characterized in that the said support comprises an elongate first housing intended to accept a first segment of the wire, and in that the said first segment is forcibly introduced into the said first housing in order to achieve a clip-fastened connection between the said wire and the said support.
A laminated motor-vehicle windshield comprising two glass sheets, an exterior glass sheet and an interior glass sheet, which sheets are joined together by an interlayer made of a thermoplastic of refractive index n 1, wherein said windshield is equipped with a through-hole that passes through at least one of said glass sheets and wherein said hole is filled with an optical device that is suitable for deviating a light beam incident substantially horizontally on that face of the windshield which is exposed to the exterior of the vehicle and for making it converge, substantially without deformation, on an image-capturing device of a camera, such as a CCD or CMOS detector, placed facing that face of the windshield which is turned toward the passenger compartment of the vehicle, said detector being arranged substantially parallelly to the surface of said windshield, wherein said windshield is equipped with a through-hole that passes through said glass sheets (4, 5) and said interlayer or only the exterior glass sheet and characterized in that the optical device comprises a combination of one or more convergent lenses and one or more divergent lenses.
A method of forming a transistor, comprising: epitaxially forming a III-V semiconductor stack having a first III-V layer on a channel layer, said channel layer on a buffer layer; etching said first III-V layer where said transistor's gate electrode is to be placed, said etching creating a void within said first III-V layer; epitaxially forming a barrier layer in said void; forming a gate electrode over said barrier layer; and forming source and drain electrodes (303, 304) over said first III-V layer; characterized in that one end of said gate electrode extends into said barrier layer, wherein the thickness of the barrier layer where said gate electrode extends into said barrier layer is less than the thickness of the barrier layer adjacent to where said gate electrode extends into said barrier layer. epitaxially forming a III-V semiconductor stack having a first III-V layer on a channel layer, said channel layer on a buffer layer; etching said first III-V layer where said transistor's gate electrode is to be placed, said etching creating a void within said first III-V layer; epitaxially forming a barrier layer in said void; forming a gate electrode over said barrier layer; and forming source and drain electrodes (303, 304) over said first III-V layer;
A concrete comprising: - cement; - effective water; - aggregates having a maximum size of 16 mm and a real density (ρ 1) of 470 to 1000 kg/m 3; - aggregates having a maximum size of 4 mm and a real density (ρ 2), such, that the real density (ρ) of the mixture + is comprised from 600 to 900 kg/m 3 with 1/p = m1/ (ρ 1) + m2/ (ρ 2) m1 and m2 respectively being the mass fractions of and; said concrete having a density in the fresh state of 800 to 1500 kg/m 3, advantageously less than or equal to 1400 kg/m 3, said concrete in the fresh state having a W effective / B eq ratio in the fresh state varying from 0.19 to 0.60, wherein W effective represents the quantity of effective water in kilograms per cubic metre of fresh concrete; wherein B eq represents the quantity of cement and optionally of additions, expressed in binder equivalent, in kilograms per cubic metre of fresh concrete; said concrete comprising a quantity of effective water varying from 100 to 320 litres per cubic metre of fresh concrete; said concrete comprising a quantity of cement and optionally of additions greater than or equal to 200 kilograms per cubic metre of fresh concrete; and said concrete in the fresh state having a volume of paste greater than or equal to 300 l/m 3 of fresh concrete; and said concrete in the fresh state having a volume of air of 1 to 16 %. - cement; - effective water; - aggregates having a maximum size of 16 mm and a real density (ρ 1) of 470 to 1000 kg/m 3; - aggregates having a maximum size of 4 mm and a real density (ρ 2), such, that the real density (ρ) of the mixture + is comprised from 600 to 900 kg/m 3 with 1/p = m1/ (ρ 1) + m2/ (ρ 2) m1 and m2 respectively being the mass fractions of and; said concrete having a density in the fresh state of 800 to 1500 kg/m 3, advantageously less than or equal to 1400 kg/m 3,
An additively-manufactured heat exchanger header defining a build plane and a vertical axis, the vertical axis being orthogonal to the build plane and defining a build direction, the additively-manufactured heat exchanger header comprising: a header body configured to at least partially contain a working fluid, the header body defining a middle region, an upper region, and a top extension; wherein: the upper region is oriented over the middle region relative to the vertical axis; and the top extension partially defines the fluid boundary and is oriented over the upper region; and an upper support structure disposed on the header body, the upper support structure comprising a branchwork (44, 46) of gussets rising upward and outward from a root point disposed in the middle region on the header body, the branchwork of gussets forming a plurality of top vanes, each supporting the top extension, the upper support structure defining an interior edge. a header body configured to at least partially contain a working fluid, the header body defining a middle region, an upper region, and a top extension; wherein: the upper region is oriented over the middle region relative to the vertical axis; and the top extension partially defines the fluid boundary and is oriented over the upper region; and the upper region is oriented over the middle region relative to the vertical axis; and the top extension partially defines the fluid boundary and is oriented over the upper region; and an upper support structure disposed on the header body, the upper support structure comprising a branchwork (44, 46) of gussets rising upward and outward from a root point disposed in the middle region on the header body, the branchwork of gussets forming a plurality of top vanes, each supporting the top extension, the upper support structure defining an interior edge.
Arrangement comprising a bounded airspace provided with a water pool, the indoor temperature of which airspace is arranged to be adjustable, and temperature means (3, 7) for adjusting the temperature of the airspace to be lower than the temperature of the water in the water pool, characterized in that the airspace is thermally insulated, and in that the temperature of the airspace is maintained at between -30...+2°C and the temperature of the water in the water pool is between - 2...+3°C by the aid of the temperature means (3, 7), and in that the arrangement comprises a temperature regulation arrangement for preventing freezing of the water in the water pool.
A motor control device controlling a synchronous motor which includes a stator including stator coils of three phases (U, V, W) and a rotor including permanent magnets and which drives a compression mechanism, by controlling the currents flowing in the respective phases (U, V, W) via switching elements (+U, -U, +V, -V, +W, -W), with a start mode without position detection of the rotor in which the rotor is rotated by forced commutation control and a sensorless mode in which the position of the rotor is sensorlessly detected to energize the stator coils, characterized in that the motor control device: stores the current value and a rotation speed value at the time when a stop command to the synchronous motor is issued during the operation in the sensorless mode; and decides a target current value in the start mode based on the stored current value and the stored rotation speed value, when a start command to the synchronous motor is issued after the issuance of the stop command. stores the current value and a rotation speed value at the time when a stop command to the synchronous motor is issued during the operation in the sensorless mode; and decides a target current value in the start mode based on the stored current value and the stored rotation speed value, when a start command to the synchronous motor is issued after the issuance of the stop command.
A job processing system, comprising: a job accepting unit (130, 101) configured to accept a job; a job registering unit configured to register the job accepted by the job accepting unit; a job processing unit configured to perform processing of the job registered in the job registering unit; a stopping command accepting unit configured to accept a processing stopping command for the job processing unit; and a control unit configured to perform control in which registering of jobs is postponed for jobs which are still in the process of being registered in the job registering unit and have not yet been so registered when the stopping command accepting unit accepted the processing stopping command, and to cause stopping of processing of registered jobs. a job accepting unit (130, 101) configured to accept a job; a job registering unit configured to register the job accepted by the job accepting unit; a job processing unit configured to perform processing of the job registered in the job registering unit; a stopping command accepting unit configured to accept a processing stopping command for the job processing unit; and a control unit configured to perform control in which registering of jobs is postponed for jobs which are still in the process of being registered in the job registering unit and have not yet been so registered when the stopping command accepting unit accepted the processing stopping command, and to cause stopping of processing of registered jobs.
An apparatus for installing a curvilinear subsurface retention barrier comprising: an implement having a sweep configured to pass through a medium to temporarily lift the medium to define a cavity therein; and a film dispenser and a film channel configured to guide the film through the implement; wherein the implement is configured to dispose a film in the cavity and to create the cavity at a preselected depth to permit cultivation of a projected root zone; wherein the subsurface retention barrier is configured to provide retained water to the projected root zone; characterized in that the implement has a film folding chamber with a cordate-shaped film entrance such that an apex of the film is aligned toward a direction of travel of the implement to fold the film and a folded film transfer chamber contiguous with the film folding chamber for receiving the folded film and providing it to a transfer and placement chamber, the transfer and placement chamber having a curvilinear film exit with a plurality of curvilinear surfaces, the film exit being configured to unfold and install the film into a curvilinear trough defining a concave cross section, the trough opening to a surface of the medium, wherein the installed film forms the subsurface retention barrier; and wherein one or more portions of the subsurface retention barrier are engineered to be semi-permeable in at least one direction. an implement having a sweep configured to pass through a medium to temporarily lift the medium to define a cavity therein; and a film dispenser and a film channel configured to guide the film through the implement; wherein the implement is configured to dispose a film in the cavity and to create the cavity at a preselected depth to permit cultivation of a projected root zone; wherein the subsurface retention barrier is configured to provide retained water to the projected root zone; characterized in that the implement has a film folding chamber with a cordate-shaped film entrance such that an apex of the film is aligned toward a direction of travel of the implement to fold the film and a folded film transfer chamber contiguous with the film folding chamber for receiving the folded film and providing it to a transfer and placement chamber, the transfer and placement chamber having a curvilinear film exit with a plurality of curvilinear surfaces, the film exit being configured to unfold and install the film into a curvilinear trough defining a concave cross section, the trough opening to a surface of the medium, wherein the installed film forms the subsurface retention barrier; and wherein one or more portions of the subsurface retention barrier are engineered to be semi-permeable in at least one direction.
A method of improving polyunsaturated fatty acid (PUFA) oil yield, wherein the method comprises performing at least two centrifugation steps on a fermentation broth, wherein the light phase product produced after the first centrifugation step is fed into the centrifuge of the second centrifugation step, and the heavy phase product produced after the first centrifugation step is discarded, and wherein the separation cut after the first centrifugation step is made into the heavy phase side, and wherein the light phase product produced after the second centrifugation step is retained and the heavy phase product produced after the second centrifugation step is recycled to a fermentation broth which will be processed in the next round of processing using said two centrifugation steps.
A method for sending uplink scheduling information in a time division duplexing, TDD, system, comprising: determining, by a base station employing multi-carrier aggregation, in uplink subframes on a second carrier, an uplink subframe, wherein at time corresponding to a downlink subframe on the second carrier for scheduling the determined uplink subframe during non-cross-carrier scheduling, a subframe on a first carrier is an uplink subframe; and sending, by the base station, on another downlink subframe on the first carrier, uplink scheduling information corresponding to the determined uplink subframe on the second carrier to a terminal, wherein time corresponding to the another downlink subframe on the first carrier is before time corresponding to the determined uplink subframe, and at least a certain number of subframes are spaced between the another downlink subframe and the determined uplink subframe, wherein the certain number is the number of subframes which need to be spaced from sending, by the base station, the uplink scheduling information to a corresponding physical uplink shared channel, PUSCH, is sent by the terminal. determining, by a base station employing multi-carrier aggregation, in uplink subframes on a second carrier, an uplink subframe, wherein at time corresponding to a downlink subframe on the second carrier for scheduling the determined uplink subframe during non-cross-carrier scheduling, a subframe on a first carrier is an uplink subframe; and sending, by the base station, on another downlink subframe on the first carrier, uplink scheduling information corresponding to the determined uplink subframe on the second carrier to a terminal, wherein time corresponding to the another downlink subframe on the first carrier is before time corresponding to the determined uplink subframe, and at least a certain number of subframes are spaced between the another downlink subframe and the determined uplink subframe, wherein the certain number is the number of subframes which need to be spaced from sending, by the base station, the uplink scheduling information to a corresponding physical uplink shared channel, PUSCH, is sent by the terminal.
A computer-implemented method for a static analysis system, the method comprising: receiving a request to extract source code that is built by a build system; setting, in an execution environment of the build system, a first environment variable that specifies a custom agent to be executed in the execution environment of the build system, wherein the first environment variable can cause the build of the source of the source code to fail and wherein the custom agent is a class loaded at run-time that causes calls to default functions of the build system, comprising a create virtual machine, VM, function, to be replaced by custom functions provided by a static analysis system, wherein the default create VM function is a function that the build system calls to invoke a virtual machine; intercepting, by the custom create VM function, a request by the build system to create a virtual machine using a default create VM function; removing, by the custom create VM function, the first environment variable from the execution environment of the build system; and executing, by the custom create VM function, the default create VM function to invoke a VM having the custom agent loadable without the execution environment having the first environment variable being set; intercepting, by the custom agent of the VM, a request by the build system to build one or more source code files; and extracting, by the custom agent, source code of the one or more source code files. receiving a request to extract source code that is built by a build system; setting, in an execution environment of the build system, a first environment variable that specifies a custom agent to be executed in the execution environment of the build system, wherein the first environment variable can cause the build of the source of the source code to fail and wherein the custom agent is a class loaded at run-time that causes calls to default functions of the build system, comprising a create virtual machine, VM, function, to be replaced by custom functions provided by a static analysis system, wherein the default create VM function is a function that the build system calls to invoke a virtual machine; intercepting, by the custom create VM function, a request by the build system to create a virtual machine using a default create VM function; removing, by the custom create VM function, the first environment variable from the execution environment of the build system; and executing, by the custom create VM function, the default create VM function to invoke a VM having the custom agent loadable without the execution environment having the first environment variable being set; intercepting, by the custom agent of the VM, a request by the build system to build one or more source code files; and extracting, by the custom agent, source code of the one or more source code files.
A herbicidal composition comprising: A) at least one herbicidal compound A from the class of ACC inhibitors which is cycloxydim (a1.19) including agriculturally acceptable salts thereof; and B) at least one herbicidal compound B selected from penoxsulam (b2.12) and bispyribac (b2.13); including agriculturally acceptable salts and ester, thioester and/or amide thereof; or a herbicidal composition, comprising cycloxydim (a1.19) and one further herbicidal compound B as the only active ingredients, wherein the herbicidal compound B is selected from azimsulfuron (b2.1) and bensulfuron (b2.2) including agriculturally acceptable salts, ester, thioester and/or amide thereof. A) at least one herbicidal compound A from the class of ACC inhibitors which is cycloxydim (a1.19) including agriculturally acceptable salts thereof; and B) at least one herbicidal compound B selected from penoxsulam (b2.12) and bispyribac (b2.13); including agriculturally acceptable salts and ester, thioester and/or amide thereof; or a herbicidal composition, comprising cycloxydim (a1.19) and one further herbicidal compound B as the only active ingredients, wherein the herbicidal compound B is selected from azimsulfuron (b2.1) and bensulfuron (b2.2) including agriculturally acceptable salts, ester, thioester and/or amide thereof.