mhurhangee/ep-ind-claims huggingface dataset:
A work machine comprising: a traveling machine body; an engine bonnet provided to the traveling machine body in an openable and closable manner and defining an engine room; an engine provided in the engine room; a radiator provided in the engine room; wherein the radiator and the engine are disposed in this order from an upstream side of a cooling air passage in the engine room, characterized in that the work machine comprises a switch (100, 200) configured to enable the engine to be driven when the engine bonnet is closed, and regulate driving of the engine when the engine bonnet is opened, wherein the switch (100, 200) is disposed upstream of the radiator in the cooling air passage, the switch includes: a switch element provided to the traveling machine body and having a pressed part; a first operation member provided to the traveling machine body and configured to operate the pressed part by pressing the pressed part; and a second operation member provided to the engine bonnet and configured to operate the first operation member, the engine room has a first space extending in the longitudinal direction of the traveling machine body between the radiator and at least one side part of the engine bonnet, and the second operation member moves within the first space along with operations to open and close the engine bonnet. a traveling machine body; an engine bonnet provided to the traveling machine body in an openable and closable manner and defining an engine room; an engine provided in the engine room; a radiator provided in the engine room; wherein the radiator and the engine are disposed in this order from an upstream side of a cooling air passage in the engine room, characterized in that the work machine comprises a switch (100, 200) configured to enable the engine to be driven when the engine bonnet is closed, and regulate driving of the engine when the engine bonnet is opened, wherein the switch (100, 200) is disposed upstream of the radiator in the cooling air passage, the switch includes: a switch element provided to the traveling machine body and having a pressed part; a first operation member provided to the traveling machine body and configured to operate the pressed part by pressing the pressed part; and a second operation member provided to the engine bonnet and configured to operate the first operation member, a switch element provided to the traveling machine body and having a pressed part; a first operation member provided to the traveling machine body and configured to operate the pressed part by pressing the pressed part; and a second operation member provided to the engine bonnet and configured to operate the first operation member, the engine room has a first space extending in the longitudinal direction of the traveling machine body between the radiator and at least one side part of the engine bonnet, and the second operation member moves within the first space along with operations to open and close the engine bonnet.
A method for optimizing the development of a fluid reservoir traversed by a fracture network and by at least one well, wherein a representation of said fluid reservoir is constructed, said reservoir is discretized into a set of cells and the fractures are characterized by statistical parameters from observations of said reservoir, characterized in that the method comprises the following stages: a) deducing from said statistical parameters an equivalent permeability tensor and an average opening for said fractures, from which an image representative of the fracture network delimiting porous blocks and fractures is constructed, b) deducing from said tensor a direction of fluid flow around said well, c) defining around said well a first elliptical boundary zone centered on said well and containing said well, and at least a second elliptical boundary zone centered on said well and forming an elliptical ring with the elliptical boundary of said first zone, said zones being oriented in said direction of fluid flow, d) simplifying said image representative of the fracture network in a different manner in each one of said zones, e) using said simplified image to construct said representation of the fluid reservoir, f) using said representation of the fluid reservoir and a flow simulator to optimize the development of said fluid reservoir. a) deducing from said statistical parameters an equivalent permeability tensor and an average opening for said fractures, from which an image representative of the fracture network delimiting porous blocks and fractures is constructed, b) deducing from said tensor a direction of fluid flow around said well, c) defining around said well a first elliptical boundary zone centered on said well and containing said well, and at least a second elliptical boundary zone centered on said well and forming an elliptical ring with the elliptical boundary of said first zone, said zones being oriented in said direction of fluid flow, d) simplifying said image representative of the fracture network in a different manner in each one of said zones, e) using said simplified image to construct said representation of the fluid reservoir, f) using said representation of the fluid reservoir and a flow simulator to optimize the development of said fluid reservoir.
A compound of formula I wherein R 1, R 2, R 3 R 4, R 5, R 6, R 7 and R 8 are independently of each other selected from: H, Cl or F; wherein the pyrrolidinyl, morpholinyl or thiomorpholinyl dioxide heterocyclic groups are independently optionally substituted by one or more Cl, F or-(C 1 -C 3) alkyl groups; and wherein X is -O- or -SO 2 -; or a pharmaceutically acceptable salt, hydrate or polymorph thereof. wherein R 1, R 2, R 3 R 4, R 5, R 6, R 7 and R 8 are independently of each other selected from: H, Cl or F; wherein the pyrrolidinyl, morpholinyl or thiomorpholinyl dioxide heterocyclic groups are independently optionally substituted by one or more Cl, F or-(C 1 -C 3) alkyl groups; and wherein X is -O- or -SO 2 -;
Method for depicting a marker which is applied to an examination object in an imaging system, comprising the following steps: - ascertaining the position of the marker by means of a first measuring method; - providing an image of the examination object on the basis of a second measuring method; - ascertaining the position of a graphical object, which represents the marker in the image, on the basis of the first measuring method; characterised in that the method further comprises the following step: - depicting the graphical object at the ascertained position in the image, wherein the graphical object is not contained in the image of the examination object on the basis of the second measuring method and wherein measured data from the second measuring method comprises no data of the marker, although the marker is situated in the field of view of the second measuring method. - ascertaining the position of the marker by means of a first measuring method; - providing an image of the examination object on the basis of a second measuring method; - ascertaining the position of a graphical object, which represents the marker in the image, on the basis of the first measuring method; - depicting the graphical object at the ascertained position in the image, wherein the graphical object is not contained in the image of the examination object on the basis of the second measuring method and wherein measured data from the second measuring method comprises no data of the marker, although the marker is situated in the field of view of the second measuring method.
A thermoelectric conversion material having, as formed on a resin substrate having recesses selected from the group consisting of a pillar shape, an inverted needle-pointed shape and an inverted truncated needle-pointed shape, a thermoelectric semiconductor layer (9,10) formed of a thermoelectric semiconductor material, wherein the resin substrate comprises a cured resin layer from a curable resin composition, wherein the thermoelectric semiconductor layer exists on the top of the resin substrate, and the inner bottom of each recess is kept electrically insulated from that top.
Aircraft emergency exit door (10, 10') with opening mechanisms which are integrated by grouping, this grouping of door opening mechanisms is carried out in a grouping strip situated on a side of a window with standard dimensions comprising a door opening inner handle fitted on a main shaft in connection with a locking shaft on which there is fitted a mechanism for blocking/locking the door with a latch and lock, at least one mechanism for conditional opening of the door comprising a vent flap arranged in the door and having a lower edge and an upper edge, a pivot connection arranged in the door in order to couple the flap to the inner handle and return springs for the flap to a closed position, in order to allow opening of said flap by exerting a reduced pressure on the flap in residual pressure variation conditions between the inside and outside of the aircraft, a blocking shaft has at each end a pressure lever equipped with a first and a second roller for blocking and unblocking of the flap, and an unblocking cam secured on the main shaft, in residual pressure variation conditions between the inside and outside of the aircraft, the vent flap, and the blocking shaft which is mounted secured to said flap, being able to pivot about its lower edge by retraction of the springs, allows the unblocking cam, by being displaced together with the inner handle, to engage the roller for unblocking of the flap and to push this unblocking roller so as to force the rotation of the blocking shaft in order to detach the blocking roller from a door stop and release the vent flap, and, in excess pressure conditions, the springs being calibrated in order not to cause the vent flap to pivot about its lower edge by actuation of the inner handle, said unblocking cam does not engage the unblocking roller and the blocking roller comes into contact with the stop, thus preventing the opening of said flap.
Tool mounting for a power tool, in particular for a portable power tool, for example a hammer drill, having a tool holder into which an application tool is able to be plugged, said application tool being lockable in the tool holder via a locking device comprising a locking element, wherein the locking element is adjustable between an unlocking position and a locking position locking the application tool in the tool mounting, wherein a blocking member is held in the tool holder and is adjustable by the application tool, and the locking element is prevented from moving in the locking position by the blocking member, characterized in that a control element that adjusts the blocking member is arranged on the tool holder, said control element being in a control position acting on the blocking member in a first phase and being in a non-functioning position in a second phase while the locking element is being transferred between the unlocking position and the locking position, wherein the control element executes an axial movement in the control position and a radial movement in order to be transferred into the non-functioning position.
A device comprising a direct path block with an input and an output, and a feedback block with an input and an output, the input of the direct path block being adapted to receive a multi-channel input signal with a given frequency range and the output of the direct path block being adapted to output an output signal with a base band frequency range, the output of the direct path block being coupled to the input of the feedback block and the input of the direct path block being coupled to the output of the feedback block, wherein: - the direct path block comprises a first transposing unit adapted to transpose the input signal to the base band frequency range, - the feedback block comprises a filtering unit adapted to filter the transposed signal at the output of the direct path block, a second transposing unit adapted to transpose the filtered signal to the given frequency range and to feed back the transposed signal at the input of the direct path block, wherein the filtering unit is a low-pass filter and the transposed signal is positively fed back at the input of the direct path block, and - the first transposing unit and the second transposing unit are reconfigurable in function of the given frequency range of the input signal. - the direct path block comprises a first transposing unit adapted to transpose the input signal to the base band frequency range, - the feedback block comprises a filtering unit adapted to filter the transposed signal at the output of the direct path block, a second transposing unit adapted to transpose the filtered signal to the given frequency range and to feed back the transposed signal at the input of the direct path block, wherein the filtering unit is a low-pass filter and the transposed signal is positively fed back at the input of the direct path block, and - the first transposing unit and the second transposing unit are reconfigurable in function of the given frequency range of the input signal.
A check valve for reception in a fluid passage, comprising a valve seat element, a valve body, and a sleeve wherein the valve body is moveable in such a manner in the sleeve, that it rests in a first position on the valve seat element and it is arranged a distance with respect to the valve seat element in a second position, wherein the valve seat element contains an opening which can be closed by the valve body in the first position, wherein a spring element is arranged between the valve body and the sleeve, wherein the spring element comprises a first end and a second end, wherein the valve body is retained by the spring element in the first position as long as the fluid pressure present in the opening is smaller than the closing force of the spring element, wherein the first end of the spring element is connected to the valve body, wherein the sleeve comprises a first jacket element which is configured to be retained in the passage, wherein the sleeve comprises a second jacket element which is configured to retain the second end of the spring element, wherein the spring element is retained in an opening of the second jacket element, characterized in that the sleeve comprises a connection element, which connects the first jacket element to the second jacket element, wherein the connection element comprises a first cylindrical portion and a second cylindrical portion and wherein the second jacket element comprises a first cylindrical portion and a second cylindrical portion, wherein the first cylindrical portion comprises a central opening for the reception of the valve body, wherein the inner diameter of the second cylindrical portion is smaller than the inner diameter of the first cylindrical portion, wherein a conical adapter is arranged between the first cylindrical portion and the second cylindrical portion, wherein the inner surface of the conical adapter is used as a support surface for the valve body, if the valve body is in the open position.
A drive device for a vehicle, including an input member drivingly connected to an internal combustion engine, an output member drivingly connected to a wheel, a rotary electric machine, a fluid coupling, an engagement device selectively drivingly connecting the input member with the rotary electric machine and the fluid coupling, and a case housing at least the rotary electric machine, the engagement device, and the fluid coupling, wherein the engagement device includes an engagement member, a pressing member pressing the engagement member, and the drive device includes a body portion housing chamber housing a body portion of the fluid coupling and a coupling supply oil passage supplying oil to the body portion housing chamber, the drive device being characterized by a differential pressure generating chamber that houses the engagement member and receives oil supply so as to apply hydraulic pressure to a side of the pressing member opposite to a side to which hydraulic pressure for operation is applied, wherein the body portion housing chamber and the differential pressure generating chamber are structured as oil chambers independent of each other, and the drive device includes a differential pressure supply oil passage supplying the oil to the differential pressure generating chamber. the engagement device includes an engagement member, a pressing member pressing the engagement member, and the drive device includes a body portion housing chamber housing a body portion of the fluid coupling and a coupling supply oil passage supplying oil to the body portion housing chamber, the drive device being characterized by a differential pressure generating chamber that houses the engagement member and receives oil supply so as to apply hydraulic pressure to a side of the pressing member opposite to a side to which hydraulic pressure for operation is applied, wherein the body portion housing chamber and the differential pressure generating chamber are structured as oil chambers independent of each other, and the drive device includes a differential pressure supply oil passage supplying the oil to the differential pressure generating chamber.
A vehicle light module, comprising a illumination unit, a supporting frame or a light body and a light-regulating mechanism used for carrying out light regulation on the illumination unit, wherein the light-regulating mechanism comprises a first ball head connector, a second ball head connector, a third ball head connector and a sliding connector, wherein one end of each of the first ball head connector and the second ball head connector is connected with the illumination unit, while the other end is connected with the supporting frame or the light body; characterised in that the illumination unit is provided with a sliding support, the sliding connector is in sliding connection with the sliding support, one end of the third ball head connector is in sliding connection with the sliding connector, the other end of the third ball head connector is supported on the supporting frame or the light body, and the third ball head connector is able to move relative to the supporting frame or the light body so as to drive the sliding connector to move, wherein the sliding support and the illumination unit are driven through the sliding connector to rotate around a connecting line between a ball head sphere center of the first ball head connector and a ball head sphere center of the second ball head connector to realize light regulation in a first direction, wherein the sliding direction of the sliding connector on the sliding support and the sliding direction of the third ball head connector relative to the sliding connector are different, and both are not located on the connecting line between the ball head sphere center of the first ball head connector and the ball head sphere center of the second ball head connector, wherein the sliding connector comprises a first sliding groove such that the sliding support is mounted in the first sliding groove and is able to slide relative to the first sliding groove along said sliding direction of the sliding connector on the sliding support, and wherein the sliding support comprises a sliding supporting plate and a reinforcing rib, the first sliding groove is provided with a first slot, and the sliding connector is mounted on the sliding support so as to enable the sliding supporting plate to slide in the first sliding groove, and the reinforcing rib to be ie- located in the first slot.
A tractor comprising: a support member disposed in a rear portion of a machine body, for supporting a lower portion of a driver's seat; left and right rear-wheel fenders disposed at left and right lateral side portions of the support member; and a control unit supported between the left and right fenders, and at a lower side of a rear portion of a rear side of the driver's seat in the support member; characterized in that a cover that covers the rear side of the control unit is disposed, and a connector is disposed facing downward at a lower portion of the control unit and a portion opposing the connector in the cover is open. a support member disposed in a rear portion of a machine body, for supporting a lower portion of a driver's seat; left and right rear-wheel fenders disposed at left and right lateral side portions of the support member; and a control unit supported between the left and right fenders, and at a lower side of a rear portion of a rear side of the driver's seat in the support member; characterized in that a cover that covers the rear side of the control unit is disposed, and a connector is disposed facing downward at a lower portion of the control unit and a portion opposing the connector in the cover is open.
A pharmaceutical combination preparation, comprising: (a) an angiotensin-II receptor blocker or a pharmaceutically acceptable salt thereof, an HMG-CoA reductase inhibitor or a pharmaceutically acceptable salt thereof, and a pharmaceutically acceptable alkalinizing agent, wherein the angiotensin-II receptor blocker is candesartan cilexetil, the HMG-CoA reductase inhibitor is rosuvastatin, and the alkalinizing agent is calcium carbonate, and wherein the alkalinizing agent is included in an amount of 0.3 to 10% by weight, based on the total weight of the pharmaceutical combination preparation; and/or (b) an angiotensin-II receptor blocker or a pharmaceutically acceptable salt thereof, an HMG-CoA reductase inhibitor or a pharmaceutically acceptable salt thereof, a pharmaceutically acceptable alkalinizing agent, and a lubricant, wherein the angiotensin-II receptor blocker is candesartan cilexetil, the HMG-CoA reductase inhibitor is rosuvastatin, the alkalinizing agent is calcium carbonate, and the lubricant is polyethylene glycol. (a) an angiotensin-II receptor blocker or a pharmaceutically acceptable salt thereof, an HMG-CoA reductase inhibitor or a pharmaceutically acceptable salt thereof, and a pharmaceutically acceptable alkalinizing agent, wherein the angiotensin-II receptor blocker is candesartan cilexetil, the HMG-CoA reductase inhibitor is rosuvastatin, and the alkalinizing agent is calcium carbonate, and wherein the alkalinizing agent is included in an amount of 0.3 to 10% by weight, based on the total weight of the pharmaceutical combination preparation; and/or (b) an angiotensin-II receptor blocker or a pharmaceutically acceptable salt thereof, an HMG-CoA reductase inhibitor or a pharmaceutically acceptable salt thereof, a pharmaceutically acceptable alkalinizing agent, and a lubricant, wherein the angiotensin-II receptor blocker is candesartan cilexetil, the HMG-CoA reductase inhibitor is rosuvastatin, the alkalinizing agent is calcium carbonate, and the lubricant is polyethylene glycol. a pharmaceutically acceptable alkalinizing agent, and a lubricant,