mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for connecting a telephone call between a vehicle driver and a customer, the method comprising: receiving (7.2) a driver request message from a device associated with the vehicle driver to place a telephone call between the vehicle driver and a customer, wherein the driver request to place a call is a message sent in response to actuation of a call-out soft button displayed on a user interface of a driver device, and wherein the message sent is an SMS or XML message; using (7.3) the driver request message to match the vehicle driver with a job allocation record in at least one database and identifying from the record the identity of the customer; retrieving (7.5) a telephone number relating to the device associated with the vehicle driver and retrieving (7.4) a customer telephone number from the at least one database; and causing (7.6), without divulging the customer telephone number to the vehicle driver, an external telephony service to use the telephone numbers to place the telephone call between the vehicle driver and the customer, wherein the external telephony service is an external conference calling service provided by an external party that acts as a conference bridge between the driver and the customer, wherein causing the external telephony service to place the telephone call comprises sending an instruction message from a vehicle management system to the external telephony service, and wherein the instruction message comprises an instruction for the telephony service to call the driver device and in response to the driver device answering the call, subsequently calling the customer device. receiving (7.2) a driver request message from a device associated with the vehicle driver to place a telephone call between the vehicle driver and a customer, wherein the driver request to place a call is a message sent in response to actuation of a call-out soft button displayed on a user interface of a driver device, and wherein the message sent is an SMS or XML message; using (7.3) the driver request message to match the vehicle driver with a job allocation record in at least one database and identifying from the record the identity of the customer; retrieving (7.5) a telephone number relating to the device associated with the vehicle driver and retrieving (7.4) a customer telephone number from the at least one database; and causing (7.6), without divulging the customer telephone number to the vehicle driver, an external telephony service to use the telephone numbers to place the telephone call between the vehicle driver and the customer, wherein the external telephony service is an external conference calling service provided by an external party that acts as a conference bridge between the driver and the customer, wherein causing the external telephony service to place the telephone call comprises sending an instruction message from a vehicle management system to the external telephony service, and wherein the instruction message comprises an instruction for the telephony service to call the driver device and in response to the driver device answering the call, subsequently calling the customer device.
A soft-magnetic, amorphous alloy ribbon produced by a rapid quenching method, having transverse lines of recesses formed on its surface by laser beams with predetermined longitudinal intervals, characterized in that a doughnut-shaped projection is formed around each recess; said doughnut-shaped projections having smooth surfaces substantially free from splashes of the alloy melted by the irradiation of laser beams of 2-5 J/cm 2, and a height t 2 of 2 μm or less; and a ratio t 1 /T of the depth t 1 of said recesses to the thickness T of said ribbon being in a range of 0.025-0.18.
An implant suitable for being anchored with the aid of mechanical vibrations in an opening (21.1) in bone tissue or other hard tissue, which implant is compressible in the direction of a compression axis under local enlargement of a distance between a peripheral surface of the implant and the compression axis, wherein the implant comprises a coupling-in face (1.1) not parallel to the compression axis for the coupling-in of a compressing force and the mechanical vibration, and wherein the implant further comprises a thermoplastic material forming at least a part of the peripheral surface of the implant in areas of the local distance enlargement characterized by the implant comprising at least two implant components (1.11, 1.12, 1.13), which are designed to be shifted relative to each other by the compressing force along shifting surfaces extending obliquely to the compression axis, wherein surfaces of the implant components (1.11, 1.12, 1.13) consist of thermoplastic material at least to the extent that the implant components are able to be welded together by the effect of the mechanical vibrations and the compressing force and wherein at least one of the implant components (1.11, 1.12, 1.13) is spreadable by the compressing force and/or wherein the implant components (1.11, 1.12, 1.13), prior to implantation, are separate or linked via predetermined breaking or melting points.
Method for estimating a remaining service life of at least one electromechanical component, - wherein at least one system variable is ascertained from sensor data of at least one sensor apparatus to which at least one electromechanical component is assigned, wherein the system variable is ascertained from a vibration signal, wherein the system variable is assigned at least one error pattern of an error situation of the electromechanical component on the basis of an ascertained spectrum of the sensor data, - wherein the system variable is assigned the error pattern of the electromechanical component with the aid of the ascertained data on the system variable and by means of an artificial neural network, - wherein the system variable is assigned an error severity of the error situation on the basis of a harmonic and/or an amplitude of the sensor data, - wherein a stress load of the electromechanical component is simulated on the basis of the error pattern and the error severity by means of a numerical method on a physical model, by simulating which forces act on at least one part of the electromechanical component on the basis of the error pattern, and - wherein a remaining service life is ascertained from the simulated stress load. - wherein at least one system variable is ascertained from sensor data of at least one sensor apparatus to which at least one electromechanical component is assigned, wherein the system variable is ascertained from a vibration signal, wherein the system variable is assigned at least one error pattern of an error situation of the electromechanical component on the basis of an ascertained spectrum of the sensor data, - wherein the system variable is assigned the error pattern of the electromechanical component with the aid of the ascertained data on the system variable and by means of an artificial neural network, - wherein the system variable is assigned an error severity of the error situation on the basis of a harmonic and/or an amplitude of the sensor data, - wherein a stress load of the electromechanical component is simulated on the basis of the error pattern and the error severity by means of a numerical method on a physical model, by simulating which forces act on at least one part of the electromechanical component on the basis of the error pattern, and - wherein a remaining service life is ascertained from the simulated stress load.
A thermal emissivity coating composition comprising: a dry admixture of a set of emissivity agents comprising titanium dioxide, wherein a weight percentage of the titanium dioxide is less than 22% by weight of the coating composition and at least 10% by weight of the coating composition, and a set of matrix strength enhancers selected from at least one of ceramic borides, ceramic carbides, and ceramic nitrides. a dry admixture of a set of emissivity agents comprising titanium dioxide, wherein a weight percentage of the titanium dioxide is less than 22% by weight of the coating composition and at least 10% by weight of the coating composition, and a set of matrix strength enhancers selected from at least one of ceramic borides, ceramic carbides, and ceramic nitrides.
A method for modifying a surface of a piston for an internal-combustion engine by using a shot made of an iron-based alloy as a particle to be ejected having a diameter of 20 μm to 200 μm, a thermal conductivity of 30 W/m·k or less at a temperature of 25 °C, and a specific gravity of 7.5 g/cm 3 or greater, comprising: a first ejection treatment for ejecting the particle to be ejected onto a surface of a piston in a space in which oxygen exists under conditions such that an arc height value is set within a range from 0.07 mm to 0.13 mm, and the piston being made of an aluminum-silicon alloy or an aluminum-copper-based alloy and obtained by casting and forging; a second ejection treatment for ejecting the particle to be ejected onto the surface of the piston to which the first ejection treatment has been applied in a space in which oxygen exists and under conditions such that an arc height value is set within a range from 0.13 mm to 0.22 mm; and a heating treatment subsequently applying to the piston for 1.5 hours or longer at a temperature of 170 °C to 190 °C in a space in which oxygen exists. a first ejection treatment for ejecting the particle to be ejected onto a surface of a piston in a space in which oxygen exists under conditions such that an arc height value is set within a range from 0.07 mm to 0.13 mm, and the piston being made of an aluminum-silicon alloy or an aluminum-copper-based alloy and obtained by casting and forging; a second ejection treatment for ejecting the particle to be ejected onto the surface of the piston to which the first ejection treatment has been applied in a space in which oxygen exists and under conditions such that an arc height value is set within a range from 0.13 mm to 0.22 mm; and a heating treatment subsequently applying to the piston for 1.5 hours or longer at a temperature of 170 °C to 190 °C in a space in which oxygen exists.
A magnetic trip device of an air circuit breaker, which includes a switching part operated by an actuator coil to indicate a failure state of the air circuit breaker when a fault current flows in, the magnetic trip device comprising: a trip bar, which is configured be in contact with a lower end of a lever and restrict pivoting of the lever, to be moved by the actuator coil in a state in which the fault current flows in, and to move the lever to a position indicating a failure state; the lever having an upper portion located to be in contact with a latch and a lower portion to be in contact with the trip bar, and configured to be restricted in pivoting of the lever by the trip bar in a steady state, to be pivoted to a position of indicating the failure state by the latch in the state in which the fault current flows in, and to operate the switching part; the latch located to be in contact with the upper portion of the lever, configured to be restricted in pivoting of the latch by the lever in the steady state and pivot the lever so as to allow the lever to operate the switching part in the state in which the fault current flows in, and, simultaneously, prevent the lever from returning to a position in the steady state; and a reset member located to be in contact with the latch, configured to be moved to a reset position so as to pivot the latch to a position in the steady state when the fault current is removed, and to be moved to a reset release position according to the pivoting of the latch. a trip bar, which is configured be in contact with a lower end of a lever and restrict pivoting of the lever, to be moved by the actuator coil in a state in which the fault current flows in, and to move the lever to a position indicating a failure state; the lever having an upper portion located to be in contact with a latch and a lower portion to be in contact with the trip bar, and configured to be restricted in pivoting of the lever by the trip bar in a steady state, to be pivoted to a position of indicating the failure state by the latch in the state in which the fault current flows in, and to operate the switching part; the latch located to be in contact with the upper portion of the lever, configured to be restricted in pivoting of the latch by the lever in the steady state and pivot the lever so as to allow the lever to operate the switching part in the state in which the fault current flows in, and, simultaneously, prevent the lever from returning to a position in the steady state; and a reset member located to be in contact with the latch, configured to be moved to a reset position so as to pivot the latch to a position in the steady state when the fault current is removed, and to be moved to a reset release position according to the pivoting of the latch.
An assembly of core members (110a, 110b) for use in an investment casting process for forming an engine part having at least one internal cast wall, wherein the assembly comprises: at least two core members (110a, 110b) defining a pair thereof and having respective ones of a pair of opposed faces, major portions of the said opposed faces being spaced from each other by a first distance corresponding to a predetermined minimum thickness of a major portion of the resulting cast wall, a face of a first core member of the pair which faces a second core member of the pair being provided with one or more protrusions thereon, and a face of the second core member of the pair which faces the first core member of the pair being provided with one or more respective open recesses therein, the or each respective protrusion on the first core member facing the or a respective one of the said open recesses in the second core member, the said major portions of the opposed faces of the first and second core members (110a, 110b) assume a mutual spacing which substantially equals the said first distance corresponding to the predetermined minimum thickness of the major portion of the resulting cast wall; and at least a head portion of the or each protrusion on the first core member is located within the or a respective open recess in the second core member, such that the or each respective protrusion and the or each respective open recess define therebetween a respective minor portion of the resulting cast wall which is laterally displaced from the major portion of the resulting cast wall. at least two core members (110a, 110b) defining a pair thereof and having respective ones of a pair of opposed faces, major portions of the said opposed faces being spaced from each other by a first distance corresponding to a predetermined minimum thickness of a major portion of the resulting cast wall, a face of a first core member of the pair which faces a second core member of the pair being provided with one or more protrusions thereon, and a face of the second core member of the pair which faces the first core member of the pair being provided with one or more respective open recesses therein, the or each respective protrusion on the first core member facing the or a respective one of the said open recesses in the second core member, the said major portions of the opposed faces of the first and second core members (110a, 110b) assume a mutual spacing which substantially equals the said first distance corresponding to the predetermined minimum thickness of the major portion of the resulting cast wall; and at least a head portion of the or each protrusion on the first core member is located within the or a respective open recess in the second core member, such that the or each respective protrusion and the or each respective open recess define therebetween a respective minor portion of the resulting cast wall which is laterally displaced from the major portion of the resulting cast wall.
An actuator (100; 300) for a valve assembly, the actuator comprising: a yoke (146; 334; 402; 452; 472; 502; 522; 542; 562; 584) with at least one bore (196; 352), the yoke being configured to rotate about a yoke axis to actuate the valve assembly, and the at least one bore (196; 352) extending transverse to the yoke axis; a first rod assembly (136; 310) configured to move in a first direction transverse to the at least one bore (196; 352) and the yoke axis; and a first slide member (148; 348; 420; 454; 474; 504, 506; 524; 544; 572; 586) seated within the at least one bore (196; 352) and pivotally secured to the first rod assembly (136; 310), the first slide member (148; 348) being configured to slide telescopically within the at least one bore (196; 352) as the first rod assembly (136; 310) moves in the first direction, to transmit torque to the yoke (146; 334; 402; 452; 472; 502; 522; 542; 562; 584) for actuation of the valve assembly, wherein the first slide member (148; 348) includes a first free end that is pivotally secured to the first rod assembly (136; 310) and a second free end that is telescopically nested within the at least one bore (196; 352), characterized in that the first free end of the first slide member (148; 348) is pivotally secured to the first rod assembly (136; 310) via a pivoting connection to a connecting arm (156; 366; 456; 478; 512; 530; 552; 574; 594) that is in threaded engagement with the first rod assembly (136; 310). a yoke (146; 334; 402; 452; 472; 502; 522; 542; 562; 584) with at least one bore (196; 352), the yoke being configured to rotate about a yoke axis to actuate the valve assembly, and the at least one bore (196; 352) extending transverse to the yoke axis; a first rod assembly (136; 310) configured to move in a first direction transverse to the at least one bore (196; 352) and the yoke axis; and a first slide member (148; 348; 420; 454; 474; 504, 506; 524; 544; 572; 586) seated within the at least one bore (196; 352) and pivotally secured to the first rod assembly (136; 310), the first slide member (148; 348) being configured to slide telescopically within the at least one bore (196; 352) as the first rod assembly (136; 310) moves in the first direction, to transmit torque to the yoke (146; 334; 402; 452; 472; 502; 522; 542; 562; 584) for actuation of the valve assembly, wherein the first slide member (148; 348) includes a first free end that is pivotally secured to the first rod assembly (136; 310) and a second free end that is telescopically nested within the at least one bore (196; 352),
A memory element comprising: a first conductive layer; a second conductive layer; an organic compound layer interposed between the first conductive layer and the second conductive layer, wherein the organic compound layer comprises a hole transporting property or an electron transporting property; and a first insulating layer (32; 37) being provided between the first conductive layer and the second conductive layer and in contact with the first conductive layer; the memory element further characterized in that the first insulating layer (32;37) is a discontinuous or reticulated layer including at least a space so that a part of the organic compound layer is in contact with the first conductive layer via the space; the memory element is configured to change a shape of the second conductive layer and a shape of the organic compound layer during writing such that the first conductive layer is short circuited with the second conductive layer, thereby lowering electric resistance of the memory element; and the first insulating layer (32; 37) comprises a thickness of 0.1 nm or more and 2 nm or less such that charges due to the thickness are injected to the organic compound layer by a tunnel effect at a predetermined voltage. a first conductive layer; a second conductive layer; an organic compound layer interposed between the first conductive layer and the second conductive layer, wherein the organic compound layer comprises a hole transporting property or an electron transporting property; and a first insulating layer (32; 37) being provided between the first conductive layer and the second conductive layer and in contact with the first conductive layer; the memory element further characterized in that the first insulating layer (32;37) is a discontinuous or reticulated layer including at least a space so that a part of the organic compound layer is in contact with the first conductive layer via the space; the memory element is configured to change a shape of the second conductive layer and a shape of the organic compound layer during writing such that the first conductive layer is short circuited with the second conductive layer, thereby lowering electric resistance of the memory element; and the first insulating layer (32; 37) comprises a thickness of 0.1 nm or more and 2 nm or less such that charges due to the thickness are injected to the organic compound layer by a tunnel effect at a predetermined voltage.
A crystalline powder of a cyclic peptide compound, the structure of which is shown in formula I, wherein the bulk density of the crystalline powder is less than 0.7g/mL;
A process for preparing 5-bromo-4-chloro-3-nitro-1H-pyrrolo[2,3-b]pyridine of Formula I: comprising the step of subjecting 4-chloro-3-nitro-1H-pyrrolo[2,3-b]pyride of Formula II to a bromination: to yield 5-bromo-4-chloro-3-nitro-1H-pyrrolo[2,3-b]pyridine of Formula I.
A method (100; 200) of operating a refrigeration system comprising: initiating a compressor shutdown operation or anticipating operation of the refrigeration system in an economizer mode; determining a difference in a saturation temperature at an intermediate port associated with an economizer heat exchanger of a compressor of the refrigeration system and an ambient temperature; and comparing (106; 206) the difference in the saturation temperature and ambient temperature with a threshold; wherein if the difference in the saturation temperature and ambient temperature is less than or equal to the threshold, performing (108; 208) a pump down operation, wherein performing the pump down operation includes operating an electronic valve assembly (36; 46) of the refrigeration system and operating the electronic valve assembly of the refrigeration system reduces a pressure at the intermediate port of the compressor; and wherein if the difference in the saturation temperature and ambient temperature exceeds the threshold, completing the compressor shutdown operation or initiating operation of the refrigeration system in the economizer mode. initiating a compressor shutdown operation or anticipating operation of the refrigeration system in an economizer mode; determining a difference in a saturation temperature at an intermediate port associated with an economizer heat exchanger of a compressor of the refrigeration system and an ambient temperature; and comparing (106; 206) the difference in the saturation temperature and ambient temperature with a threshold; wherein if the difference in the saturation temperature and ambient temperature is less than or equal to the threshold, performing (108; 208) a pump down operation, wherein performing the pump down operation includes operating an electronic valve assembly (36; 46) of the refrigeration system and operating the electronic valve assembly of the refrigeration system reduces a pressure at the intermediate port of the compressor; and wherein if the difference in the saturation temperature and ambient temperature exceeds the threshold, completing the compressor shutdown operation or initiating operation of the refrigeration system in the economizer mode.