mhurhangee/ep-ind-claims huggingface dataset:
Control valve for mounting on a flow channel housing of an internal combustion engine of a motor vehicle, comprising a flow channel housing part (20, 20a) having at least a flow inlet opening and a flow outlet opening, a control body which is arranged in the flow channel housing part (20, 20a) and with which a passage between the flow inlet opening and the flow outlet opening can be controlled, an actuating member having a longitudinal axis, to which the control body is fastened and which extends in the longitudinal direction through an opening (28, 28a) of the flow channel housing (20, 20a), an actuator formed by a transmission with an electric motor and via which the actuating member can be moved, and an actuator housing part, wherein the flow channel housing (20, 20a) and the actuator housing part are each formed separately, and the actuator housing part is adapted to be set on the flow channel housing (20, 20a) in at least two positions turned about the longitudinal axis with respect to the flow channel housing part (20, 20a), characterized in that at least one projection is provided which extends into a corresponding recess formed in the flow channel housing (20, 20a) and/or the actuator housing part, and wherein the flow channel housing part is formed as a plug-in housing adapted to be plugged into a receptacle of the flow channel housing.
A system scanning method for a mobile terminal, the method comprising: performing a first scanning process on at least all channels registered to a Preferred Roaming List, PRL, to acquire system information; calculating, when the system information is not acquired in the first scanning process, a power saving time and a second scan time on the basis of a first scan time taken for the first scanning process, wherein the second scan time is equal to the first scan time; and performing a second scanning process and a power saving process, on the basis of the power saving time and the second scan time, alternately until the system information is acquired. performing a first scanning process on at least all channels registered to a Preferred Roaming List, PRL, to acquire system information; calculating, when the system information is not acquired in the first scanning process, a power saving time and a second scan time on the basis of a first scan time taken for the first scanning process, wherein the second scan time is equal to the first scan time; and performing a second scanning process and a power saving process, on the basis of the power saving time and the second scan time, alternately until the system information is acquired.
A stator of an electric rotating machine: characterized by comprising: a laminated iron core having slots, in the inner circumferential surface thereof, in which a stator winding is mounted, the laminated iron core being fixed to a supporting member constituted by end frames (51, 52) of the electric rotating machine in such a way that at least part of the outer circumferential surface thereof is exposed; and a marking formed of recesses in the exposed outer circumferential surface of the laminated iron core, wherein the marking indicates inherent information about at least the stator. characterized by comprising: a laminated iron core having slots, in the inner circumferential surface thereof, in which a stator winding is mounted, the laminated iron core being fixed to a supporting member constituted by end frames (51, 52) of the electric rotating machine in such a way that at least part of the outer circumferential surface thereof is exposed; and a marking formed of recesses in the exposed outer circumferential surface of the laminated iron core, wherein the marking indicates inherent information about at least the stator. a laminated iron core having slots, in the inner circumferential surface thereof, in which a stator winding is mounted, the laminated iron core being fixed to a supporting member constituted by end frames (51, 52) of the electric rotating machine in such a way that at least part of the outer circumferential surface thereof is exposed; and a marking formed of recesses in the exposed outer circumferential surface of the laminated iron core, wherein the marking indicates inherent information about at least the stator.
A ship for bringing liquified gas, such as liquified carbon dioxide, CO 2, from an onshore terminal across a sea to a subsurface permanent storage reservoir, the ship comprising a loading line for communicating liquified gas received from the onshore terminal into at least one vessel onboard the ship, and a processing plant, wherein processing plant comprises: - an injection processing module comprising an injection pump configured for injecting liquified gas into the subsurface permanent storage reservoir; wherein the injection processing module is operatively connected to the at least one vessel and a gas injection line provided with a connector for connecting to a flexible injection hose extending from a subsea connection point being connected to a well of the subsurface permanent storage reservoir, characterised in that the ship is a shuttle tanker comprising a storage tank having a larger volume than the at least one vessel, wherein a portion of the at least one vessel is housed within the storage tank. - an injection processing module comprising an injection pump configured for injecting liquified gas into the subsurface permanent storage reservoir;
An operating state display method for an electric vehicle in which a drive electric power is supplied from a battery to a travel motor, the operating state display method comprising: an eco-level setting step of setting an eco-level based on a vehicle speed of the electric vehicle and an output of the travel motor, the eco-level configured to stepwise indicate an energy consumption efficiency in an operating state of the electric vehicle; and a display step of displaying in a vehicle cabin an eco-level gauge configured to expand or contract according to the eco-level. an eco-level setting step of setting an eco-level based on a vehicle speed of the electric vehicle and an output of the travel motor, the eco-level configured to stepwise indicate an energy consumption efficiency in an operating state of the electric vehicle; and a display step of displaying in a vehicle cabin an eco-level gauge configured to expand or contract according to the eco-level.
Wire inlet nozzle for being fastened in a coupling of a hose assembly, comprising a wire inlet element, characterised by a cylindrical fastening means which comprises at least one slot for forming at least two movable jaws, the fastening means comprising an opening for removably receiving a wire core, and being designed to simultaneously fix the wire core in place and to be deformable in the coupling by a manual rotational movement, the fastening means being provided with an oval projection on the end opposite the wire inlet element, which oval projection is raised relative to the cylindrical region.
A system (100; 500), comprising: a memory (170; 508, 510); an encryptor module configured to output ciphertext based on plaintext input; a timer module configured to output at least a first timing signal and a second timing signal; a noise generator module configured to generate noise data in accordance with a mimic function, wherein the mimic function is configured to mimic the ciphertext output by the encryptor module; and at least one processor coupled to the memory and configured to: input the plaintext into the encryptor module; write the ciphertext output from the encryptor module into the memory; input the ciphertext from the memory into the noise generator module; in response to receiving the first timing signal from the timer module, output the ciphertext from the memory to at least one output device; and in response to receiving the second timing signal from the timer module, output the noise data generated by the noise generator module to the at least one output device. a memory (170; 508, 510); an encryptor module configured to output ciphertext based on plaintext input; a timer module configured to output at least a first timing signal and a second timing signal; a noise generator module configured to generate noise data in accordance with a mimic function, wherein the mimic function is configured to mimic the ciphertext output by the encryptor module; and at least one processor coupled to the memory and configured to: input the plaintext into the encryptor module; write the ciphertext output from the encryptor module into the memory; input the ciphertext from the memory into the noise generator module; in response to receiving the first timing signal from the timer module, output the ciphertext from the memory to at least one output device; and in response to receiving the second timing signal from the timer module, output the noise data generated by the noise generator module to the at least one output device. input the plaintext into the encryptor module; write the ciphertext output from the encryptor module into the memory; input the ciphertext from the memory into the noise generator module; in response to receiving the first timing signal from the timer module, output the ciphertext from the memory to at least one output device; and in response to receiving the second timing signal from the timer module, output the noise data generated by the noise generator module to the at least one output device.
A data compression method comprising performing spatial decorrelation on a j x k input block of data values using a spatial decorrelation module which is arranged to process g x h blocks of data values, wherein the number of columns, j, in the input block of data values is a multiple of g, and wherein j × k = g × h, the method comprising: reorganising the input block of data values into a g x h block of data values by: (i) dividing each of the rows of the input block into a plurality sections, wherein each section comprises g data values, and (ii) arranging the sections into h rows to form a g x h block of data values; characterized by performing spatial decorrelation on the g x h block of data values to determine spatially decorrelated data values, wherein the rows of the g x h block of data values are processed in an order such that, for each row of the input block of data values, a first section of that row is processed in an earlier iteration to that in which a second section of that row is processed, wherein the first section is to the right of the second section in the row, and wherein at least one value from the first section is saved for use in the spatial decorrelation of the second section; and providing the spatially decorrelated data values to an entropy encoding module for entropy encoding. reorganising the input block of data values into a g x h block of data values by: (i) dividing each of the rows of the input block into a plurality sections, wherein each section comprises g data values, and (ii) arranging the sections into h rows to form a g x h block of data values; characterized by performing spatial decorrelation on the g x h block of data values to determine spatially decorrelated data values, wherein the rows of the g x h block of data values are processed in an order such that, for each row of the input block of data values, a first section of that row is processed in an earlier iteration to that in which a second section of that row is processed, wherein the first section is to the right of the second section in the row, and wherein at least one value from the first section is saved for use in the spatial decorrelation of the second section; and providing the spatially decorrelated data values to an entropy encoding module for entropy encoding.
Interlocking device suitable for a door of a switchgear having a draw-out circuit breaker, comprising: - a locking unit movable between a locking position and an unlocking-position for preventing and allowing opening of said door, respectively, - a driving unit arranged for acting on said locking unit upon a movement of said draw-out circuit breaker, - said driving unit being configured for placing said locking unit in said unlocking-position when said draw-out circuit breaker is in an extracted-non-operative-position, and for enabling positioning of said locking unit in said locking position upon a movement of said draw-out circuit breaker from said extracted-non-operative-position towards an inserted-operative-position, characterized in that said driving unit comprises a movable body for exerting a pushing action on said locking unit for keeping said locking unit in said unlocking-position, said movable body comprising follower means (48, 49) suitable for being displaced by wheel means of a trolley supporting said draw-out circuit breaker, said movable body being movable along a driving direction transversely with respect to a path of the wheel means along a rail element between a raised position corresponding to the unlocking position of the locking unit, and a lowered position which enables the locking unit to achieve the locking position. - a locking unit movable between a locking position and an unlocking-position for preventing and allowing opening of said door, respectively, - a driving unit arranged for acting on said locking unit upon a movement of said draw-out circuit breaker, - said driving unit being configured for placing said locking unit in said unlocking-position when said draw-out circuit breaker is in an extracted-non-operative-position, and for enabling positioning of said locking unit in said locking position upon a movement of said draw-out circuit breaker from said extracted-non-operative-position towards an inserted-operative-position,
A storage device for bladed instruments comprising at least one receptacle that is demarcated by at least one edge, known as the upper edge, extending along a substantially horizontal plane when the device is in the usage position, an opening that is co-planar with the upper edge and intended for the insertion of the blades of the instruments, and at least two walls (13, 14) facing each other and extending transversally to the upper edge, that is to say vertically, and spaced so as to create a groove near the opening, where the groove is designed to form a volume that receives the blades of the instruments, and said walls (13, 14) close the two respective sides of the receptacle, where the groove comprises holding means intended to hold the instruments in place in said groove, characterised in that the holding means are suitable for setting the blades of the instruments against a wall, known as the application wall, where the holding means form an elastic return means extending in a plane that is substantially parallel to the walls.
A pop-up monitor including a body housing, a monitor, and a monitor frame for supporting the monitor, which is installed to move in a vertical direction with respect to the body housing, the pop-up monitor further comprising: a driving unit comprising a motor, a rotational shaft, and a gear set (320; 340) which transfers a rotational motion of the motor to the rotational shaft; a sensor outputting a sensing signal for whether the rotational shaft rotates; and a controller outputting a control signal for a rotational direction of the motor according to the sensing signal and state information regarding whether the motor rotates, characterized in that when the controller receives a sensing signal, indicating that the rotational shaft does not rotate, from the sensor and receives state information indicating that the motor is rotating continuously, the controller controls the rotational direction of the motor in a reverse direction. a driving unit comprising a motor, a rotational shaft, and a gear set (320; 340) which transfers a rotational motion of the motor to the rotational shaft; a sensor outputting a sensing signal for whether the rotational shaft rotates; and a controller outputting a control signal for a rotational direction of the motor according to the sensing signal and state information regarding whether the motor rotates, characterized in that when the controller receives a sensing signal, indicating that the rotational shaft does not rotate, from the sensor and receives state information indicating that the motor is rotating continuously, the controller controls the rotational direction of the motor in a reverse direction.
A method comprising: receiving a request for resources associated with a job within a compute environment, the request requiring a first type of resource and a second type of resource and comprising a wall clock limit that is independent of the compute environment; determining (504,506), based on information about a relative speed of resources in the compute environment and on wall clock scaling information that is specific to the job, a completion time associated with how a first resource type would process the job associated with the request and how a second resource type would process the job associated with the request; generating a co-allocating map between the first type of resources and the second type of resources based on the analysis of completion times for the first and second type of resources, wherein an intersection of the availability of each of the first type of resource and the second type of resource is identified; and reserving resources of the first resource type and the second resource type within the compute environment according to the generated co-allocating map such that the job associated with the request completes at the completion time. receiving a request for resources associated with a job within a compute environment, the request requiring a first type of resource and a second type of resource and comprising a wall clock limit that is independent of the compute environment; determining (504,506), based on information about a relative speed of resources in the compute environment and on wall clock scaling information that is specific to the job, a completion time associated with how a first resource type would process the job associated with the request and how a second resource type would process the job associated with the request; generating a co-allocating map between the first type of resources and the second type of resources based on the analysis of completion times for the first and second type of resources, wherein an intersection of the availability of each of the first type of resource and the second type of resource is identified; and reserving resources of the first resource type and the second resource type within the compute environment according to the generated co-allocating map such that the job associated with the request completes at the completion time.
An arrangement with a housing part, a second housing part, a first guide anchor, a second guide anchor, and at least one guide track, wherein the guide anchors (109, 111) engage positively and displaceably in the guide track, and wherein the first guide anchor is rigidly fixed to the first housing part, and the second guide anchor is rigidly fixed to the second housing part, characterized in that the guide anchors (109, 111) absorb at least part of the weight force of the guide track and transmit it into the two housing parts (103, 105). the guide anchors (109, 111) engage positively and displaceably in the guide track, and wherein the first guide anchor is rigidly fixed to the first housing part, and the second guide anchor is rigidly fixed to the second housing part, characterized in that the guide anchors (109, 111) absorb at least part of the weight force of the guide track and transmit it into the two housing parts (103, 105).
Holding device for holding a rotary platform of an elevator system, which elevator system comprises: - at least one elevator car, which can be moved in a shaft by way of guide rails (56, 57, 58) - at least one fixed first guide rail which is fixedly arranged in the shaft and is orientated in a first, in particular vertical, direction (z), - at least one fixed second guide rail which is fixedly orientated in a second, in particular horizontal, direction (y), - at least one third guide rail which can be rotated with respect to the shaft, is secured to the rotary platform and can be transferred between an orientation in the first direction (z) and an orientation in the second direction (y), the holding device comprises: - at least one shaft mounting for securing the holding device in the shaft; characterized in that the holding device comprises a holding frame for the at least indirect securement of the rotary platform to the holding device, and a first adjustment arrangement for adjusting the orientation of the holding frame with respect to the shaft mounting. - at least one elevator car, which can be moved in a shaft by way of guide rails (56, 57, 58) - at least one fixed first guide rail which is fixedly arranged in the shaft and is orientated in a first, in particular vertical, direction (z), - at least one fixed second guide rail which is fixedly orientated in a second, in particular horizontal, direction (y), - at least one third guide rail which can be rotated with respect to the shaft, is secured to the rotary platform and can be transferred between an orientation in the first direction (z) and an orientation in the second direction (y), - at least one shaft mounting for securing the holding device in the shaft; characterized in that the holding device comprises a holding frame for the at least indirect securement of the rotary platform to the holding device, and a first adjustment arrangement for adjusting the orientation of the holding frame with respect to the shaft mounting.
Compression knitted fabric consisting of a base knitted fabric and an elastic weft thread inserted therein, wherein the base knitted fabric is formed from at least one knitting thread and the weft thread is inserted respectively in weft thread rows (s) between two consecutive stitch rows (r) of the base knitted fabric, characterised in that - the knitting thread in each stitch row (r) of the base knitted fabric is knitted alternately as stitch and tuck, so that the knitting thread forms respectively a tuck stitch between two stitches of a stitch row (r) of the base knitted fabric, - the weft thread is inserted between adjacent stitch rows (r) of the base knitted fabric alternately as tuck and float (-), so that the weft thread respectively floats between two tuck stitches of a weft thread row (s), - wherein the alternate sequence of stitch and tuck in consecutive stitch rows (r) of the base knitted fabric is offset respectively by one stitch with respect to the alternate sequence of tuck and float (-) in consecutive weft thread rows (s). - the knitting thread in each stitch row (r) of the base knitted fabric is knitted alternately as stitch and tuck, so that the knitting thread forms respectively a tuck stitch between two stitches of a stitch row (r) of the base knitted fabric, - the weft thread is inserted between adjacent stitch rows (r) of the base knitted fabric alternately as tuck and float (-), so that the weft thread respectively floats between two tuck stitches of a weft thread row (s), - wherein the alternate sequence of stitch and tuck in consecutive stitch rows (r) of the base knitted fabric is offset respectively by one stitch with respect to the alternate sequence of tuck and float (-) in consecutive weft thread rows (s).