mhurhangee/ep-ind-claims huggingface dataset:
A memory circuit comprising: a bistable circuit configured to write data; a nonvolatile element (MTJ1, MTJ2) configured to store data written in the bistable circuit in a nonvolatile manner by changing a resistance value with a current flowing between one end and the other end and restore data stored in a nonvolatile manner into the bistable circuit, the nonvolatile element (MTJ1, MTJ2) having the one end connected to a node (Q, QB) in the bistable circuit and the other end connected to a control line (CTRL); an FET (m7, m8) having a source and a drain connected in series to the nonvolatile element (MTJ1, MTJ2) between the node (Q, QB) and the control line (CTRL); and characterized in that the memory circuit further comprises: a control unit configured to make a highest voltage to be applied to a gate of the FET (m7, m8) during a period to restore data stored in the nonvolatile element (MTJ1, MTJ2) in a nonvolatile manner into the bistable circuit lower than a voltage of a node being at a high level in the bistable circuit during a period to write data into and read data from the bistable circuit in a volatile manner. a bistable circuit configured to write data; a nonvolatile element (MTJ1, MTJ2) configured to store data written in the bistable circuit in a nonvolatile manner by changing a resistance value with a current flowing between one end and the other end and restore data stored in a nonvolatile manner into the bistable circuit, the nonvolatile element (MTJ1, MTJ2) having the one end connected to a node (Q, QB) in the bistable circuit and the other end connected to a control line (CTRL); an FET (m7, m8) having a source and a drain connected in series to the nonvolatile element (MTJ1, MTJ2) between the node (Q, QB) and the control line (CTRL); and characterized in that the memory circuit further comprises: a control unit configured to make a highest voltage to be applied to a gate of the FET (m7, m8) during a period to restore data stored in the nonvolatile element (MTJ1, MTJ2) in a nonvolatile manner into the bistable circuit lower than a voltage of a node being at a high level in the bistable circuit during a period to write data into and read data from the bistable circuit in a volatile manner.
Method for receiving goods from a distribution warehouse, or from some other consignor, in the case of which a goods-receipt box is arranged, at least temporarily, on the outside of the body of a vehicle used by the person and an item required/desired by the person is transported from the distribution warehouse, or from the other consignor, to the location of the parked vehicle and is introduced into the goods-receipt box, retaining framework is fastened, at least temporarily, on the vehicle and the goods-receipt box is fastened on the retaining framework, characterized in that the goods-receipt box is fastened by a connection being established between at least one first fastening means of the retaining framework and at least one second fastening means of the goods-receipt box, wherein the first and second fastening means (24, 12b) are locked by virtue of a lid of the goods-receipt box being closed, and the first and second fastening means (24, 12b) are unlocked by virtue of said lid being opened.
Method for monitoring the operation of a machine, in particular a motor or electrically powered motor, comprising the following steps: a) training phase: i. providing training data comprising state variables of a number of operating points of the machine, ii. recognising and combining operating points of the training data by means of clustering to form operating point clusters, iii. training a classifier, which assigns operating points to the recognised operating point clusters, iv. training at least one anomaly recognition model for operating anomaly recognition, b) application phase: i. recording operating data comprising state variables of operating points of the machine in an operating state, ii. assigning the operating data to the operating point clusters by means of the classifier, iii. recognising operating anomalies by means of the at least one anomaly recognition model, characterised in that an anomaly characteristic value is calculated by the anomaly recognition model, the value of which describes the severity of the anomaly, wherein an anomaly and/or an anomaly type is recognised if the anomaly characteristic value exceeds a predetermined threshold value. a) training phase: i. providing training data comprising state variables of a number of operating points of the machine, ii. recognising and combining operating points of the training data by means of clustering to form operating point clusters, iii. training a classifier, which assigns operating points to the recognised operating point clusters, iv. training at least one anomaly recognition model for operating anomaly recognition, i. providing training data comprising state variables of a number of operating points of the machine, ii. recognising and combining operating points of the training data by means of clustering to form operating point clusters, iii. training a classifier, which assigns operating points to the recognised operating point clusters, iv. training at least one anomaly recognition model for operating anomaly recognition, b) application phase: i. recording operating data comprising state variables of operating points of the machine in an operating state, ii. assigning the operating data to the operating point clusters by means of the classifier, iii. recognising operating anomalies by means of the at least one anomaly recognition model, characterised in that an anomaly characteristic value is calculated by the anomaly recognition model, the value of which describes the severity of the anomaly, wherein an anomaly and/or an anomaly type is recognised if the anomaly characteristic value exceeds a predetermined threshold value. i. recording operating data comprising state variables of operating points of the machine in an operating state, ii. assigning the operating data to the operating point clusters by means of the classifier, iii. recognising operating anomalies by means of the at least one anomaly recognition model,
A battery module, comprising an output electrode base and an end plate, wherein the output electrode base is inserted into and fitted to the end plate; wherein a first limiting element is disposed on the output electrode base, a limiting plate is disposed on the end plate, and the first limiting element is fitted to the limiting plate to limit relative movement of the output electrode base and the end plate along a first direction; wherein a stop hole is provided in one of the output electrode base and the end plate, and a second limiting element is disposed on the other, wherein the second limiting element is accommodated in the stop hole, and the second limiting element is fitted to the stop hole to limit relative movement of the output electrode base and the end plate along a second direction; and wherein an extension direction of the first direction is opposite to an extension direction of the second direction. characterized in that the end plate comprises a body; the stop hole is provided in the body along a height direction of the battery module; and the output electrode base comprises a base plate, and the second limiting element protrudes from the base plate along the height direction of the battery module. wherein a first limiting element is disposed on the output electrode base, a limiting plate is disposed on the end plate, and the first limiting element is fitted to the limiting plate to limit relative movement of the output electrode base and the end plate along a first direction; wherein a stop hole is provided in one of the output electrode base and the end plate, and a second limiting element is disposed on the other, wherein the second limiting element is accommodated in the stop hole, and the second limiting element is fitted to the stop hole to limit relative movement of the output electrode base and the end plate along a second direction; and wherein an extension direction of the first direction is opposite to an extension direction of the second direction. characterized in that the end plate comprises a body; the stop hole is provided in the body along a height direction of the battery module; and the output electrode base comprises a base plate, and the second limiting element protrudes from the base plate along the height direction of the battery module.
A torque receiving assembly for an image forming process cartridge comprising: a body having an axis and having an accommodating chamber; a driven shaft disposed coaxially with said body, the driven shaft including a guide stem and a coupling head provided at one axial end of said guide stem, the guide stem having a pair of output arms which extend outwardly in a radial direction, the coupling head having a plurality of projections; wherein a pair of input arms are provided at an inner wall of the accommodating chamber and configured for abutting with the output arms; the guide stem is movable in the axis direction relative to the body, the torque receiving assembly further comprises a distance-limiting mechanism that defines a maximum distance the driven shaft is able to move relative to the body in the axis direction; characterised in that the distance-limiting mechanism comprises a retaining cover fixed to an open end of the accommodating chamber to retain part of the driven shaft in the accommodating chamber, and the output arms are disposed between the retaining cover and a bottom wall of the accommodating chamber. a body having an axis and having an accommodating chamber; a driven shaft disposed coaxially with said body, the driven shaft including a guide stem and a coupling head provided at one axial end of said guide stem, the guide stem having a pair of output arms which extend outwardly in a radial direction, the coupling head having a plurality of projections; wherein a pair of input arms are provided at an inner wall of the accommodating chamber and configured for abutting with the output arms; the guide stem is movable in the axis direction relative to the body, the torque receiving assembly further comprises a distance-limiting mechanism that defines a maximum distance the driven shaft is able to move relative to the body in the axis direction; characterised in that the distance-limiting mechanism comprises a retaining cover fixed to an open end of the accommodating chamber to retain part of the driven shaft in the accommodating chamber, and the output arms are disposed between the retaining cover and a bottom wall of the accommodating chamber.
A method for removing coating from a substrate, the method comprising: locating an edge of a substrate with an edge-tracking system, the edge-tracking system including a sensor and a microprocessor directing a laser beam along a first path to a first position, corresponding to a laser entry point on a surface of the substrate proximate to the located edge of the substrate at an angle of incidence suitable to redirect the laser beam at an angle of refraction along a second path, through the substrate, to a second position, corresponding to a laser exit point on a second surface of the substrate corresponding to the located edge of the substrate, the second surface comprising a coating, the refractive index of the substrate being different from the external refractive index outside the substrate, thereby altering the speed, angle, and path of the laser beam as it passes through the substrate; and ablating at least a portion of coating at the second position on the second surface of the substrate corresponding to the located edge. locating an edge of a substrate with an edge-tracking system, the edge-tracking system including a sensor and a microprocessor directing a laser beam along a first path to a first position, corresponding to a laser entry point on a surface of the substrate proximate to the located edge of the substrate at an angle of incidence suitable to redirect the laser beam at an angle of refraction along a second path, through the substrate, to a second position, corresponding to a laser exit point on a second surface of the substrate corresponding to the located edge of the substrate, the second surface comprising a coating, the refractive index of the substrate being different from the external refractive index outside the substrate, thereby altering the speed, angle, and path of the laser beam as it passes through the substrate; and ablating at least a portion of coating at the second position on the second surface of the substrate corresponding to the located edge.
A dry powder inhaler (10, 60) comprising a housing to receive a single blister containing a dose of medicament for inhalation by a user, said blister comprising a blister lid attached to a blister bowl, a mouthpiece through which a dose of medicament is inhaled by a user and a blister opening device, the blister opening device comprising a blister support element for supporting the blister containing a dose of medicament for inhalation by a user, and a blister folding element co-operable with the blister support element, the blister folding element and the blister support element being movable relative to each other between a first position, for insertion of said blister into or onto the blister support element, and a second, burst, position in which the blister folding element has co-operated with the blister support element, characterized in that movement from the first position to the second position causes two spaced apart portions of said blister to each fold relative to the remainder of the blister along a respective fold line and against the blister support element to produce two spaced apart openings (56a, 56b), each opening extending along the circumference of the blister bowl, beginning and terminating at points located on the fold line such that, when a user inhales through the mouthpiece, an airflow through the blister via the two openings (56a, 56b) is generated to entrain the dose contained therein and carry it out of the blister and via the mouthpiece into the user's airway.
A method for sterilizing a liquid peptide composition whose sequence comprises a series of repeating units, wherein the peptide composition has an amino acid sequence comprising repeats of Ile-Glu-Ile-Lys (IEIK) characterised in that the method comprises subjecting the peptide composition to autoclave treatment.
An apparatus comprising: a decoder to decode an enqueue command instruction; execution circuitry, where execution of the enqueue command instruction causes the execution circuitry to: generate a work descriptor based, at least in part, on data from a source operand of the enqueue command instruction, the work descriptor comprising a plurality of fields including an operation field to specify one or more operations to be performed, a flag to indicate whether the work descriptor can be processed in parallel with one or more other work descriptors, and an address field associated with the one or more operations; store the work descriptor to a work queue. a decoder to decode an enqueue command instruction; execution circuitry, where execution of the enqueue command instruction causes the execution circuitry to: generate a work descriptor based, at least in part, on data from a source operand of the enqueue command instruction, the work descriptor comprising a plurality of fields including an operation field to specify one or more operations to be performed, a flag to indicate whether the work descriptor can be processed in parallel with one or more other work descriptors, and an address field associated with the one or more operations; store the work descriptor to a work queue. generate a work descriptor based, at least in part, on data from a source operand of the enqueue command instruction, the work descriptor comprising a plurality of fields including an operation field to specify one or more operations to be performed, a flag to indicate whether the work descriptor can be processed in parallel with one or more other work descriptors, and an address field associated with the one or more operations; store the work descriptor to a work queue.
An air conditioner comprising: a radiator configured to cause heat radiation to be performed with respect to air from a supercritical refrigerant during heating operation; a refrigeration cycle that includes the radiator; and a controller configured to control a room temperature inside a room that is an air conditioning target by causing a high-pressure side pressure of the refrigeration cycle that includes the radiator and a refrigerant outlet temperature of the radiator to reach respective target values that have been set beforehand, characterized in that: the controller is configured to increase or decrease the target value of the high-pressure side pressure when an excess or a deficiency of heating operation capability has been recognized from the room temperature despite the high-pressure side pressure and the refrigerant outlet temperature having reached the target values, and wherein the controller is further configured to increase the target value of the high-pressure side pressure when a predetermined amount of time has elapsed without the room temperature reaching a setting temperature. a radiator configured to cause heat radiation to be performed with respect to air from a supercritical refrigerant during heating operation; a refrigeration cycle that includes the radiator; and a controller configured to control a room temperature inside a room that is an air conditioning target by causing a high-pressure side pressure of the refrigeration cycle that includes the radiator and a refrigerant outlet temperature of the radiator to reach respective target values that have been set beforehand, characterized in that: the controller is configured to increase or decrease the target value of the high-pressure side pressure when an excess or a deficiency of heating operation capability has been recognized from the room temperature despite the high-pressure side pressure and the refrigerant outlet temperature having reached the target values, and wherein the controller is further configured to increase the target value of the high-pressure side pressure when a predetermined amount of time has elapsed without the room temperature reaching a setting temperature. the controller is configured to increase or decrease the target value of the high-pressure side pressure when an excess or a deficiency of heating operation capability has been recognized from the room temperature despite the high-pressure side pressure and the refrigerant outlet temperature having reached the target values, and wherein the controller is further configured to increase the target value of the high-pressure side pressure when a predetermined amount of time has elapsed without the room temperature reaching a setting temperature.
An apparatus comprising: a switch having a gate, a source and a drain; a control circuit connected to the gate and configured and arranged to apply a bias to the gate to control a conductance state of the switch by, in response to a control signal presented at the source, in a first mode, controlling the switch in an open state to block signals from passing through the switch, and in a second mode, controlling the switch in a closed state to pass signals through the switch; and a logic circuit configured and arranged to respond to address information received in a signal presented at the source by, in the first mode, storing the address information to configure the apparatus with the address and, in the second mode, ignoring address information in signals presented at the source; the apparatus further including: an impedance circuit connected between the gate and the source, wherein the control circuit is connected to the gate and the impedance circuit, and the control circuit is configured and arranged to: control the switch in the open state by flowing a bias current of a first polarity through the impedance circuit; and control the switch in the closed state by flowing a bias current of opposite polarity through the impedance circuit. a switch having a gate, a source and a drain; a control circuit connected to the gate and configured and arranged to apply a bias to the gate to control a conductance state of the switch by, in response to a control signal presented at the source, in a first mode, controlling the switch in an open state to block signals from passing through the switch, and in a second mode, controlling the switch in a closed state to pass signals through the switch; and a logic circuit configured and arranged to respond to address information received in a signal presented at the source by, in the first mode, storing the address information to configure the apparatus with the address and, in the second mode, ignoring address information in signals presented at the source; the apparatus further including: an impedance circuit connected between the gate and the source, wherein the control circuit is connected to the gate and the impedance circuit, and the control circuit is configured and arranged to: control the switch in the open state by flowing a bias current of a first polarity through the impedance circuit; and control the switch in the closed state by flowing a bias current of opposite polarity through the impedance circuit.
A processing machine for separatingly processing a plate-shaped material, including a processing station in which said separating processing is performed by means of a processing head, and including a workpiece support for receiving said plate-shaped material, and including a loading and unloading station which is disposed outside of said processing station and to which the workpiece support may be moved, said loading and unloading station having a mobile sorting device which extends at least partially across the workpiece support and may be moved at least partially along the workpiece support, and said sorting device having a bridge spanning over the workpiece support and being supported by two running gears disposed respectively on either side of the bridge, said sorting device receiving a deposition surface for processed workpieces.
Method for processing a toothed workpiece, wherein the workpiece is clamped on a rotating workpiece spindle and a first tool set and a second tool set engage in the workpiece, wherein at least at a first side of the workpiece a chamfering is carried out at tooth end face edges (20, 21, 29, 30) and a smoothing of tooth flanks (13, 15) is carried out close to the tooth end face edges (20, 21, 29, 30), wherein the first tool set engages at the first side of the workpiece with a wedge-like tool portion laterally in the tooth gaps in the workpiece, wherein the tooth end face edges are chamfered on front tooth flanks with respect to a running direction of the workpiece, and a smoothing of the tooth flanks is carried out close to the tooth end face edges on rear tooth flanks with respect to the running direction of the workpiece, and wherein the second tool set engages at the first side of the workpiece with a wedge-like tool portion laterally in the tooth gaps in the workpiece, wherein a smoothing of the tooth flanks is carried out close to the tooth end face edges on front tooth flanks with respect to a running direction of the workpiece, and the tooth end face edges are chamfered on rear tooth flanks with respect to the running direction of the workpiece, characterised in that the first tool set at the first side of the workpiece comprises a plurality of the wedge-like tool portions on a bevel gear, and the second tool set at the first side of the workpiece comprises a plurality of the wedge-like tool portions on another bevel gear, and in that the first tool set and the second tool set engage in the workpiece at different locations on the periphery of the workpiece with respect to a fixed reference system.