mhurhangee/patent-ind-claim-en huggingface dataset:
Power split continuously variable transmission having at least four travel ranges within which the transmission ratio is continuously variable in the region of a variator , wherein a first planetary gear set (P1) which comprises multiple shafts (W11 to W14) can be operatively connected to a second planetary gear set (P2) which has multiple shafts (W21 to W23) via multiple shift elements (K1 to K4), said second planetary gear set being operatively connected or being able to be operatively connected to a transmission output shaft , wherein the first planetary gear set (P1) comprises four shafts (W11 to W14) and is operatively connected or can be operatively connected to a transmission input shaft and a first shaft of the variator via a first shaft (W11) and is operatively connected to a second shaft of the variator via a second shaft (W12) while the first planetary gear set (P1) is coupled to shift element halves of two shift elements (K1, K3) via a third shaft (W13) and to a shift element half of a further shift element (K2) via a fourth shaft (W14), characterized in that two driving direction clutches (KV, KR) which can be engaged into the power flow and can be disengaged from the power flow and gear wheel pairs (15 and 16 or 18, 19, and 33) which are associated with said driving direction clutches are provided, wherein a rotation direction of the transmission output shaft corresponds to the rotation direction of the transmission input shaft when the first driving direction clutch (KV or KR) is engaged and differs from said rotation direction when the second driving direction clutch (KR or KV) is engaged, and wherein the transmission output shaft can be operatively connected to the second planetary gear set (P2) via the driving direction clutches (KV, KR).
A flow control apparatus comprising: - a housing including a housing passage ; - a port extending through the housing ; - a flow control member including a fluid responsive surface , and configured for displacement, relative to the port , such that fluid communication is effected between the port and the housing passage ; - a sensor coupled to the housing for sensing an actuating signal; - a valve ; and characterised by - a valve actuator that includes a squib configured for effecting generation of an explosion, in response to the sensing of an actuating signal by the sensor , with effect that a change in condition of the valve is effected such that fluid communication between the housing passage and the fluid responsive surface is effected. - a housing including a housing passage ; - a port extending through the housing ; - a flow control member including a fluid responsive surface , and configured for displacement, relative to the port , such that fluid communication is effected between the port and the housing passage ; - a sensor coupled to the housing for sensing an actuating signal; - a valve ; and - a valve actuator that includes a squib configured for effecting generation of an explosion, in response to the sensing of an actuating signal by the sensor , with effect that a change in condition of the valve is effected such that fluid communication between the housing passage and the fluid responsive surface is effected.
Method for measuring the tension of a circulating belt that is deflected by at least one tension roller , which is adjusted on an adjustment path to change a running length of the circulating belt , a bearing force of the at least one tension roller being measured by at least one force measuring device in at least one direction, which depends on the adjustment path of the at least one tension roller , characterized in that a respective sensitivity of the at least one force measuring device with respect to the tension is determined for multiple points of the adjustment path, wherein the sensitivities and/or values calculated therefrom are stored as an array in at least one memory , to which at least one controller makes access, which calculates the tension from the current adjustment path , the current bearing force and the stored sensitivities and/or values by means of interpolation.
A planographic printing plate precursor comprising a support layer and an image recording layer including an infrared absorbing agent, a tetraphenyl borate salt as a radical polymerisation initiator, and a radical polymerizable compound which includes a urethane bond and two or more ethylenically unsaturated groups and has a weight-average molecular weight of 3000 to 10000; the planographic printing plate precursor having any one of the following layer arrangements i to iv: i: an arrangement in which the support layer and the image recording layer are provided in this order ii: an arrangement in which the support layer, an undercoat, and the image recording layer are provided in this order iii: an arrangement in which the support layer, the image recording layer, and a protective layer are provided in this order iv: an arrangement in which the support layer, the undercoat, the image recording layer, and the protective layer are provided in this order; the planographic printing plate precursor further comprising a hydrophilization agent layer containing a hydrophilization agent provided in a region between the layers in the layer arrangements i to iv, on a side opposite to a support layer with respect to the image recording layer in the layer arrangement i or ii, or on a side opposite to the support layer with respect to a protective layer in the layer arrangement iii or iv, from the end portion of the planographic printing plate precursor to a portion inside the end portion by 1 cm. the planographic printing plate precursor having any one of the following layer arrangements i to iv: i: an arrangement in which the support layer and the image recording layer are provided in this order ii: an arrangement in which the support layer, an undercoat, and the image recording layer are provided in this order iii: an arrangement in which the support layer, the image recording layer, and a protective layer are provided in this order iv: an arrangement in which the support layer, the undercoat, the image recording layer, and the protective layer are provided in this order; i: an arrangement in which the support layer and the image recording layer are provided in this order ii: an arrangement in which the support layer, an undercoat, and the image recording layer are provided in this order iii: an arrangement in which the support layer, the image recording layer, and a protective layer are provided in this order iv: an arrangement in which the support layer, the undercoat, the image recording layer, and the protective layer are provided in this order; the planographic printing plate precursor further comprising a hydrophilization agent layer containing a hydrophilization agent provided in a region between the layers in the layer arrangements i to iv, on a side opposite to a support layer with respect to the image recording layer in the layer arrangement i or ii, or on a side opposite to the support layer with respect to a protective layer in the layer arrangement iii or iv, from the end portion of the planographic printing plate precursor to a portion inside the end portion by 1 cm.
A moisture removal and condensation and humidity management apparatus for a breathing circuit arranged between a patient and a ventilator, the apparatus comprising: a breathing circuit tubing defining a breathing gas conduit and a dry gas conduit adjacent at least a portion of the breathing gas conduit , the breathing gas conduit configured to receive a flow of breathing gas (B) having a first humidity level and the dry gas conduit configured to receive a flow of dry gas (D) having a second humidity level lower than the first humidity level; at least one heated wire having a length extending from an upstream end of the breathing circuit tubing to a downstream end of the breathing circuit tubing , the at least one heated wire configured to provide heat to the flow of breathing gas such that the breathing gas at the downstream end is heated to a higher temperature than the breathing gas at the upstream end ; and a moisture transmission pathway (T) between the breathing gas conduit and the dry gas conduit and configured to enable transfer of moisture from the breathing gas (B) to the dry gas (D) based on a humidity differential between the first and second humidity levels; characterised by a feeding conduit extending through at least a portion of the dry gas conduit so that an outlet of the feeding conduit is at the upstream end of the apparatus , the feeding conduit configured to supply the dry gas (D) into the dry gas conduit ; and by the dry gas conduit comprising an outlet that is in fluid communication with the ambient environment. a breathing circuit tubing defining a breathing gas conduit and a dry gas conduit adjacent at least a portion of the breathing gas conduit , the breathing gas conduit configured to receive a flow of breathing gas (B) having a first humidity level and the dry gas conduit configured to receive a flow of dry gas (D) having a second humidity level lower than the first humidity level; at least one heated wire having a length extending from an upstream end of the breathing circuit tubing to a downstream end of the breathing circuit tubing , the at least one heated wire configured to provide heat to the flow of breathing gas such that the breathing gas at the downstream end is heated to a higher temperature than the breathing gas at the upstream end ; and a moisture transmission pathway (T) between the breathing gas conduit and the dry gas conduit and configured to enable transfer of moisture from the breathing gas (B) to the dry gas (D) based on a humidity differential between the first and second humidity levels; characterised by a feeding conduit extending through at least a portion of the dry gas conduit so that an outlet of the feeding conduit is at the upstream end of the apparatus , the feeding conduit configured to supply the dry gas (D) into the dry gas conduit ; and by the dry gas conduit comprising an outlet that is in fluid communication with the ambient environment.
A lock for a bonnet of a motor vehicle which can be moved from an open position into a closed position, comprising a locking hook which retains a striker in the closed position of the bonnet and a catch locking the locking hook in the closed position, an eject lever for moving the striker out of the locking hook being provided which is not blocked by the catch in the closed position, characterised in that the catch can actively move from a pre-locked position to a fully locked position in the closed position which locks the locking hook and the catch actively moves from the fully locked position to the pre-locked position as soon as a pedestrian impact situation is detected on the bonnet.
A vacuum cleaner comprising: - a main body configured to rest and roll on a floor to be cleaned, the main body including a vacuum cleaner case and first and second main wheels mounted movable in rotation relative to the vacuum cleaner case , - a suction head mechanically connected to the vacuum cleaner case and through which outside air can be sucked in by the vacuum cleaner , - at least one exhaust port through which air cleaned by the vacuum cleaner can come out of the vacuum cleaner , - an aeraulic circuit extending between the suction head and the at least one exhaust port , - a suction motor accommodated in the vacuum cleaner case and arranged on the aeraulic circuit , the suction motor being configured to generate an airflow in the aeraulic circuit , - a waste separation and collection device which is arranged on the aeraulic circuit upstream of the suction motor and which is configured to be crossed by the airflow generated by the suction motor , - a gripping stick mechanically connected to the vacuum cleaner case , characterized in that the suction head is mounted movable relative to the vacuum cleaner case between a retracted position in which the suction head is brought closer to a front edge of the vacuum cleaner case , and a deployed position in which the suction head is brought away from the front edge of the vacuum cleaner case , the vacuum cleaner being configured such that a rearward tilting of the gripping stick and of the vacuum cleaner case , from a predetermined operating position of the vacuum cleaner and about the axes of rotation of the first and second main wheels , causes a displacement of the suction head towards the deployed position and such that a forward tilting of the gripping stick and of the vacuum cleaner case , in the direction of the predetermined operating position of the vacuum cleaner and about the axes of rotation of the first and second main wheels , causes a displacement of the suction head towards the retracted position. - a main body configured to rest and roll on a floor to be cleaned, the main body including a vacuum cleaner case and first and second main wheels mounted movable in rotation relative to the vacuum cleaner case , - a suction head mechanically connected to the vacuum cleaner case and through which outside air can be sucked in by the vacuum cleaner , - at least one exhaust port through which air cleaned by the vacuum cleaner can come out of the vacuum cleaner , - an aeraulic circuit extending between the suction head and the at least one exhaust port , - a suction motor accommodated in the vacuum cleaner case and arranged on the aeraulic circuit , the suction motor being configured to generate an airflow in the aeraulic circuit , - a waste separation and collection device which is arranged on the aeraulic circuit upstream of the suction motor and which is configured to be crossed by the airflow generated by the suction motor , - a gripping stick mechanically connected to the vacuum cleaner case ,
Phase conductor arrangement for an electrical energy transmission device comprising an electrically conductive base body, which extends along a main axis , and also a cut-out that is essentially strip-shaped and extends along the base body, wherein the base body is a hollow cylinder that comprises the cut-out in a peripheral wall, wherein the peripheral wall that lies opposite the cut-out is closed and the peripheral wall comprises at least on the inner peripheral face a profiled structure that increases the surface area, characterized in that the base body comprises an end-face side contacting surface that corresponds essentially to an annular segment, wherein webs protrude out of a circular cylindrical inner peripheral face of the base body and protrude radially inward in the direction of the main axis and a tensioning device is arranged in a distributed manner in the end face in the webs.
A touch sensor , comprising: a substrate; an electrode layer formed on the substrate, wherein the electrode layer comprises at least a first electrode pattern , the first electrode pattern comprises a plurality of first conductive units spaced from each other, the first conductive unit has a boundary line , the boundary line comprises a curved connecting segment , the connecting segment comprises at least one first concave and convex portion , and first concave and convex portions are sequentially connected to form a smooth curve; a bridge electrode line , wherein two ends of the bridge electrode line respectively cross connecting segments of two adjacent first conductive units to electrically connect the two first conductive units , the bridge electrode line extends in a curve, the bridge electrode line comprises at least one second concave and convex portion , and second concave and convex portions are sequentially connected to form a smooth curve; and wherein the touch sensor further comprises at least one first etched stripe and at least one second etched stripe , and first etched stripes and second etched stripes are interleaved. a substrate; an electrode layer formed on the substrate, wherein the electrode layer comprises at least a first electrode pattern , the first electrode pattern comprises a plurality of first conductive units spaced from each other, the first conductive unit has a boundary line , the boundary line comprises a curved connecting segment , the connecting segment comprises at least one first concave and convex portion , and first concave and convex portions are sequentially connected to form a smooth curve; a bridge electrode line , wherein two ends of the bridge electrode line respectively cross connecting segments of two adjacent first conductive units to electrically connect the two first conductive units , the bridge electrode line extends in a curve, the bridge electrode line comprises at least one second concave and convex portion , and second concave and convex portions are sequentially connected to form a smooth curve; and wherein the touch sensor further comprises at least one first etched stripe and at least one second etched stripe , and first etched stripes and second etched stripes are interleaved.
Method for image correction of X-ray image information, comprising measuring impinging radiation with an X-ray detector element ; receiving readout information of an X-ray detector element ; wherein the readout information is dependent on impinging X-radiation generating a measured photo current; determining from the readout information a detected photon energy per detector pixel element of said X-ray detector element ; and determining from the readout information the measured photo current per detector pixel element ; determining compensation information comprising a photoconductive gain per detector pixel element and a persistent current per detector pixel element, the determination comprising comparing the detected photon energy per detector pixel element with an expected photon energy, wherein the expected photon energy is determined from a calibration operation of an X-ray system employed for acquisition of the readout information; determining a compensated photo current per detector pixel element by compensating the measured photo current per detector pixel element for the persistent current per detector pixel element; determining a compensated photon energy per detector pixel element based on the compensated photo current per detector pixel element and the detected photon energy per detector pixel element; and compensating the readout information per detector pixel element employing the determined compensation information.
A memory system comprising: a memory controller configured to control a memory device ; and a sub-buffer memory arranged outside the memory controller , wherein the memory controller comprises: a processor configured to control a memory operation for the memory device ; a main buffer memory that is different from the sub-buffer memory and arranged in the memory controller ; and a buffer allocation circuit configured to control an allocation ratio between the sub-buffer memory and the main buffer memory , wherein the processor is configured to set an operation mode of the buffer allocation circuit and the buffer allocation circuit is configured to control the allocation ratio based on the operation mode; wherein the main buffer memory is a static random access memory, SRAM, and wherein the sub-buffer memory is a dynamic random access memory, DRAM. a memory controller configured to control a memory device ; and a sub-buffer memory arranged outside the memory controller , wherein the memory controller comprises: a processor configured to control a memory operation for the memory device ; a main buffer memory that is different from the sub-buffer memory and arranged in the memory controller ; and a buffer allocation circuit configured to control an allocation ratio between the sub-buffer memory and the main buffer memory , a processor configured to control a memory operation for the memory device ; a main buffer memory that is different from the sub-buffer memory and arranged in the memory controller ; and a buffer allocation circuit configured to control an allocation ratio between the sub-buffer memory and the main buffer memory , wherein the processor is configured to set an operation mode of the buffer allocation circuit and the buffer allocation circuit is configured to control the allocation ratio based on the operation mode; wherein the main buffer memory is a static random access memory, SRAM, and wherein the sub-buffer memory is a dynamic random access memory, DRAM.
A porous separator for fuel cells which is obtained by molding a composition comprising 100 parts by weight of graphite powder and from 10.0 to 16.0 parts by weight of epoxy resin components that include a base resin, a curing agent and a curing accelerator, the porous fuel cell separator having a gas leak pressure of 56 kPa or more as measured by the method of the description and characterized in that the graphite powder has a springback of between 40% and 100% as measured by the method of the description and the porous separator has a water permeability of 800 × 10 -17 m 2 or more as measured by the method of the description.
A heat exchange assembly for exchanging heat between a coolant and a gaseous medium, comprising: an outer jacket ; a plurality of gas tubes positioned within the outer jacket ; and a self-cleaning system positioned about the plurality of gas tubes ; wherein the self-cleaning system comprises a plurality of chains extending through the plurality of gas tubes . wherein the self-cleaning system comprises an upper bar attached to a first end of the plurality of chains , characterized in that the self-cleaning system comprises a lower bar attached to a second end of the plurality of chains . wherein the self-cleaning system comprises an upper bar attached to a first end of the plurality of chains , characterized in that the self-cleaning system comprises a lower bar attached to a second end of the plurality of chains .
A non-human animal which is a mouse or rat comprising: cells containing a nucleic acid molecule that comprises the coding sequence for a tagged ribosomal protein under the control of a regulatory sequence, so that the tagged ribosomal protein is selectively expressed in a particular cell type, wherein the tagged ribosomal protein comprises L10a with an enhanced GFP (eGFP) tag.