mhurhangee/ep-ind-claims huggingface dataset:
A vehicle-mounted control device for controlling a charging efficiency of an engine that is adapted to automatically stop when a predetermined automatic stop condition is fulfilled, wherein the vehicle-mounted control device is mounted to a vehicle provided with a starter motor for cranking the engine to start the engine, and when a restart request of the engine has been generated during the predetermined time period from the fulfillment of the automatic stop condition until complete stop of the engine, the vehicle-mounted control device is adapted to execute one of a first restart mode in which fuel injection is restarted to achieve combustion recovery of the engine without using a starter motor, and a second restart mode in which the engine is cranked to restart the engine by using the starter motor, characterized in that, unless the engine can be started by push-start by using the energy of the vehicle that is inertially traveling with a power transmission path between the engine and the wheels connected, the vehicle-mounted control device is adapted to control the charging efficiency for a requested engine output amount at the time of restarting the engine by using the starter motor on the basis of an engine output request generated during a predetermined time period from the fulfillment of the automatic stop condition until complete stop of the engine to be lower than a charging efficiency for the requested engine output amount, and control the charging efficiency for an engine output request at the time of executing the second restart mode to be lower than the charging efficiency for an engine output request at the time of executing the first restart mode.
Method for the non-destructive testing of a test object by means of ultrasound, comprising the following process steps: a. insonification of directed ultrasonic pulses into the test object at an insonification angle zu, wherein the insonification angle β is adjusted electronically, b. recording of echo signals that result from the ultrasonic pulses insonified into the test object, c. determining an insonification position X0 at which echo signals can be recorded which can be allocated to a flaw in the volume of the test object, d. determining the insonification angle βmax for which the ERS value of the flaw has its maximum at the position X0, e. changing the insonification position X0 -> X1 on the surface of the test object, wherein: i. the change of the insonification position is detected, and ii. the insonification angle β is electronically retraced, such that the ERS value (ERS = equivalent reflector size) of the flaw at the changed insonification position X1 has its maximum. a. insonification of directed ultrasonic pulses into the test object at an insonification angle zu, wherein the insonification angle β is adjusted electronically, b. recording of echo signals that result from the ultrasonic pulses insonified into the test object, c. determining an insonification position X0 at which echo signals can be recorded which can be allocated to a flaw in the volume of the test object, d. determining the insonification angle βmax for which the ERS value of the flaw has its maximum at the position X0, e. changing the insonification position X0 -> X1 on the surface of the test object, wherein: i. the change of the insonification position is detected, and ii. the insonification angle β is electronically retraced, such that the ERS value (ERS = equivalent reflector size) of the flaw at the changed insonification position X1 has its maximum. i. the change of the insonification position is detected, and ii. the insonification angle β is electronically retraced, such that the ERS value (ERS = equivalent reflector size) of the flaw at the changed insonification position X1 has its maximum.
A honeycomb structure obtained by unitarily bonding two or more honeycomb segments to be bonded by means of a bonding material layer, wherein the bonding material layer contains dehydroxylated layer silicate, and the average linear thermal expansion coefficient α 1000°C specified by the following formula and the average linear thermal expansion coefficient α 400°C specified by the following formula of a test piece cut out from the bonding material layer satisfy the following formula: α 1000 ° C = l 1000 ° C − l 40 ° C / l 40 ° C × 1273.15 K − 313.15 K (where, l 1000°C represents length of the test piece at 1000°C, and l 40°C represents length of the test piece at 40°C) α 400 ° C = l 400 ° C − l 40 ° C / l 40 ° C × 673.15 K − 313.15 K (where, l 400°C represents length of the test piece at 400°C, and l 40°C represents length of the test piece at 40°C) α 1000 ° C − α 400 ° C ≤ 2.0 × 10 − 6 / K wherein the thermal expansion is measured according to the method disclosed in the description.
A bus, notably an articulated bus, the bus comprising: a vehicle detection module configured for detecting a vehicle (50; 50L; 50L) such as: a car, a van, or a motorbike, a height obtaining module configured for obtaining the height of the detected vehicle (50; 50L; 50L), wherein the bus comprises a window having an edge, the window being a rear window or a side window, and a lighting system with a lighting surface, characterized in that the lighting system is adapted for selectively displaying a first luminous picture at least partially below the height of the detected vehicle (50; 50L) or a second luminous picture, at least partially or totally, above the height of the detected vehicle (50; 50L; 50L), in that the lighting surface extends on a majority or the whole surface of the window, and in that the lighting surface overlaps the window's edge. a vehicle detection module configured for detecting a vehicle (50; 50L; 50L) such as: a car, a van, or a motorbike, a height obtaining module configured for obtaining the height of the detected vehicle (50; 50L; 50L), wherein the bus comprises a window having an edge, the window being a rear window or a side window, and a lighting system with a lighting surface, characterized in that the lighting system is adapted for selectively displaying a first luminous picture at least partially below the height of the detected vehicle (50; 50L) or a second luminous picture, at least partially or totally, above the height of the detected vehicle (50; 50L; 50L), in that the lighting surface extends on a majority or the whole surface of the window, and in that the lighting surface overlaps the window's edge.
A virtual reality welding system, comprising: a protective welding helmet; a programmable processor-based subsystem; and a computerized eyewear device having a head-up display and control and communication circuitry operatively connected to the HUD, wherein the programmable processor-based subsystem and the computerized eyewear device are cooperatively configured to provide one or more of virtual reality images associated with a virtual reality welding process and virtual cues and indicators associated with a virtual reality welding process o the HUD; wherein the computerized eyewear device is configured to: be worn by a user as eye glasses are worn while also wearing the protective welding helmet; and wirelessly communicate with the programmable processor-based subsystem; wherein the computerized eyewear device further includes a frame configured to be worn on the head of the user; wherein the HUD is affixed to the frame and is movable with respect to the frame through rotation about a first axis that extends parallel to a brow portion of the frame. a protective welding helmet; a programmable processor-based subsystem; and a computerized eyewear device having a head-up display and control and communication circuitry operatively connected to the HUD, wherein the programmable processor-based subsystem and the computerized eyewear device are cooperatively configured to provide one or more of virtual reality images associated with a virtual reality welding process and virtual cues and indicators associated with a virtual reality welding process o the HUD; wherein the computerized eyewear device is configured to: be worn by a user as eye glasses are worn while also wearing the protective welding helmet; and wirelessly communicate with the programmable processor-based subsystem; wherein the computerized eyewear device further includes a frame configured to be worn on the head of the user; wherein the HUD is affixed to the frame and is movable with respect to the frame through rotation about a first axis that extends parallel to a brow portion of the frame. be worn by a user as eye glasses are worn while also wearing the protective welding helmet; and wirelessly communicate with the programmable processor-based subsystem; wherein the computerized eyewear device further includes a frame configured to be worn on the head of the user; wherein the HUD is affixed to the frame and is movable with respect to the frame through rotation about a first axis that extends parallel to a brow portion of the frame.
A system (200; 300; 400; 500) for determining the location of sensors (100; 320; 420; 520; 620) embedded in subsurface material (204',304',404',504') surrounding a well (204, 304, 404, 504), the system (200; 300; 400; 500) comprising: at least one seismic signal generator (212; 312; 412; 512) configured to generate a seismic wave signal to communicate information to enable determination of the sensor location to the sensor (100; 320; 420; 520; 620); a sensor location apparatus (202; 302; 402; 502; 602) configured to lower the at least one seismic signal generator (212; 312; 412; 512) into a well surrounded by subsurface material (204'; 304'; 404'; 504'); and a sensor location controller (210; 310; 410; 510) configured to actuate generation of the seismic wave signal as the at least one seismic signal generator (212; 312; 412; 512) is lowered into the well (204; 304; 404; 504); wherein the seismic wave signal includes a modulated seismic wave signal configured to communicate an identifier corresponding to a depth of the seismic signal generator (212; 312; 412; 512) that transmitted the seismic wave signal. at least one seismic signal generator (212; 312; 412; 512) configured to generate a seismic wave signal to communicate information to enable determination of the sensor location to the sensor (100; 320; 420; 520; 620); a sensor location apparatus (202; 302; 402; 502; 602) configured to lower the at least one seismic signal generator (212; 312; 412; 512) into a well surrounded by subsurface material (204'; 304'; 404'; 504'); and a sensor location controller (210; 310; 410; 510) configured to actuate generation of the seismic wave signal as the at least one seismic signal generator (212; 312; 412; 512) is lowered into the well (204; 304; 404; 504); wherein the seismic wave signal includes a modulated seismic wave signal configured to communicate an identifier corresponding to a depth of the seismic signal generator (212; 312; 412; 512) that transmitted the seismic wave signal.
A piston unit for a plunger cylinder comprising a piston rod with an end section at the cylinder bottom side and an end section at the guide side, and comprising a guide piston which is formed by a first half shell and by a second half shell, wherein the half shells (5, 6) encompass the piston rod at least in sections, characterized in that the piston rod has a circumferential, concave receiving contour in the area of the end section at the cylinder bottom side, wherein the receiving contour has an outer wall at the cylinder bottom side and wherein the outer wall encloses an acute angle α (alpha) with the longitudinal axis of the piston rod, and that the inner jacket surface of each half shell (5, 6) rests on an outer jacket surface of the piston rod, and that the half shells (5, 6) have end sections (9, 10 and 11, 12) corresponding to each other, wherein the end sections (9, 10) of the first half shell have an encompassing offset to the corresponding opposite end sections (11, 12) of the second half shell, and that each half shell (5, 6) is provided with an engagement section with an inside engagement contour (13, 14), wherein the corresponding engagement section constitutes the guide-side boundary of the allocated half shell (5, 6) and wherein the corresponding engagement contour (13, 14) is retracted relative to the inner jacket surface of the appropriate half shell (5, 6) and wherein the corresponding engagement contour (13, 14) of the appropriated half shell (5, 6) engages in the receiving contour of the piston rod and wherein each engagement contour (13, 14) has an inner wall (15, 16), wherein the corresponding inner wall (15, 16) corresponds to the cylinder-bottom-side outer wall of the receiving contour, and that each half shell (5, 6) encloses an encompassing angle greater than 180° by the appropriate engagement contour (13, 14), in its first end section (9, 10) and by a section, axially opposite to the corresponding engagement contour (13, 14), in its second end section (10, 12).
An isolated viral particle for use in the treatment of a brain cancer, the viral particle having a genome comprising open reading frames that encode: a protein having a sequence comprising SEQ ID NO: 3, or a variant sequence which is at least 75% identical to SEQ ID NO: 3; a protein having a sequence comprising SEQ ID NO: 4, or a variant sequence which is at least 75% identical to SEQ ID NO: 4; a protein having a sequence comprising SEQ ID NO: 5, or a variant sequence which is at least 75% identical to SEQ ID NO: 5; a protein having a sequence comprising SEQ ID NO: 6, or a variant sequence which is at least 75% identical to SEQ ID NO: 6; and a protein having a sequence comprising SEQ ID NO: 7, or a variant sequence which is at least 75% identical to SEQ ID NO: 7. a protein having a sequence comprising SEQ ID NO: 3, or a variant sequence which is at least 75% identical to SEQ ID NO: 3; a protein having a sequence comprising SEQ ID NO: 4, or a variant sequence which is at least 75% identical to SEQ ID NO: 4; a protein having a sequence comprising SEQ ID NO: 5, or a variant sequence which is at least 75% identical to SEQ ID NO: 5; a protein having a sequence comprising SEQ ID NO: 6, or a variant sequence which is at least 75% identical to SEQ ID NO: 6; and a protein having a sequence comprising SEQ ID NO: 7, or a variant sequence which is at least 75% identical to SEQ ID NO: 7.
A measuring circuit connectable to a capacitive touch-sensitive panel, the panel including a plurality of sense electrodes, the circuit being adapted to measure variations in the instantaneous electric capacity of the sense electrodes in response to proximity to conductive bodies, wherein the sense electrodes are biased at a fixed voltage relative to a common floating reference potential, the measuring circuit comprising: a power management circuit comprising a modulated voltage source having a variable frequency generating a modulation voltage that determines said floating reference potential, one or more readout units, operatively arranged for generating signals representing the instantaneous electric capacity of the sense electrodes; synchronous detection means for generating said signals synchronously with the modulation voltage, characterized by being configured for sampling the output signal at a frequency which is synchronized to the frequency of the modulating signal, and to average those samples over an averaging interval, wherein the measuring circuit is operatively arranged for varying the frequency of the modulated voltage source during the averaging interval.
A dual-mode and dual-standby mobile terminal, comprising a first mode radio frequency transceiver, a second mode radio frequency transceiver, a first mode baseband chip connected to the first mode radio frequency transceiver, and a second mode baseband chip connected to the second mode radio frequency transceiver, characterized in that the mobile terminal further comprises: a call processing module, connected to both the first mode baseband chip and the second mode baseband chip, and configured to perform fake call waiting on a call in active state in the first mode before proactively switching to the first call in the second mode when determining that there are two calls in the first mode, or before passively answering the second call in the second mode when determining that there are two calls in the first mode; wherein the call processing module configured to perform fake call waiting processing on the call in active state in the first mode is configured to shield a call device of the call in active state in the first mode, and insert a prompt tone in an uplink; wherein the call device comprises a microphone, a receiver and a speaker; the call processing module configured to shield the call device of the call in active state in the first mode comprises: controlling the microphone not to transport collected audio data into the uplink of the call in active state in the first mode, and, controlling downlink data of the call in active state in the first mode not to be transmitted to the receiver and the speaker. a call processing module, connected to both the first mode baseband chip and the second mode baseband chip, and configured to perform fake call waiting on a call in active state in the first mode before proactively switching to the first call in the second mode when determining that there are two calls in the first mode, or before passively answering the second call in the second mode when determining that there are two calls in the first mode; wherein the call processing module configured to perform fake call waiting processing on the call in active state in the first mode is configured to shield a call device of the call in active state in the first mode, and insert a prompt tone in an uplink; wherein the call device comprises a microphone, a receiver and a speaker; the call processing module configured to shield the call device of the call in active state in the first mode comprises: controlling the microphone not to transport collected audio data into the uplink of the call in active state in the first mode, and, controlling downlink data of the call in active state in the first mode not to be transmitted to the receiver and the speaker.
An autoinjector comprising front and rear separable housing portions connectable and disconnectable by a coupling action (16, 60), the rear housing portion containing a drive mechanism, the front housing portion being adapted in use to receive a syringe having a needle, the front housing portion including a needle shield portion movable between an extended position in which it shields said syringe needle in use, and a retracted position in which the needle may be exposed, characterised in that the autoinjector further includes a locking arrangement (58, 40) which is effective to lock said needle shield portion against retraction movement and which is configured to be responsive to connection and disconnection of said housing portions, and which is unlocked when said housing portions are connected and which is locked when said housing portions are disconnected.
A transfer unit attachable to and detachable from an image forming apparatus, the transfer unit comprising: an endless intermediate transfer belt configured to hold a toner image transferred from an image bearing member (50a, 50b, 50c, 50d); a plurality of support rollers (60, 61, 63, 67) configured to stretch the intermediate transfer belt, the plurality of support rollers including a first metal roller having an outer surface made of a metal; and a second metal roller (54a, 54b, 54c, 54d) having an outer surface made of a metal, configured to contact an inner surface of the intermediate transfer belt to form a transfer portion, and transfer the toner image borne by the image bearing member (50a, 50b, 50c, 50d) to the intermediate transfer belt when a transfer bias is applied to the second metal roller (54a, 54b, 54c, 54d), wherein the first metal roller is provided with a concave portion formed in 90% or more of a maximum image forming area, the concave portion having a depth of 10 μm or more and a width of 50 μm or more and 5 mm or less, wherein the second metal roller (54a, 54b, 54c, 54d) has a maximum surface height Ry of 25 μm or less in the maximum image forming area, and wherein the maximum surface height Ry of the first metal roller is larger than the maximum surface height Ry of the second metal roller (54a, 54b, 54c, 54d) by 10 μm or more. an endless intermediate transfer belt configured to hold a toner image transferred from an image bearing member (50a, 50b, 50c, 50d); a plurality of support rollers (60, 61, 63, 67) configured to stretch the intermediate transfer belt, the plurality of support rollers including a first metal roller having an outer surface made of a metal; and a second metal roller (54a, 54b, 54c, 54d) having an outer surface made of a metal, configured to contact an inner surface of the intermediate transfer belt to form a transfer portion, and transfer the toner image borne by the image bearing member (50a, 50b, 50c, 50d) to the intermediate transfer belt when a transfer bias is applied to the second metal roller (54a, 54b, 54c, 54d), wherein the first metal roller is provided with a concave portion formed in 90% or more of a maximum image forming area, the concave portion having a depth of 10 μm or more and a width of 50 μm or more and 5 mm or less, wherein the second metal roller (54a, 54b, 54c, 54d) has a maximum surface height Ry of 25 μm or less in the maximum image forming area, and wherein the maximum surface height Ry of the first metal roller is larger than the maximum surface height Ry of the second metal roller (54a, 54b, 54c, 54d) by 10 μm or more.
A method for information acquisition for display relating to one or more contactless communications on one or more display areas (SDA 1, SDA 2, SADA) of a mobile information apparatus comprising a contactless communications antenna, and an accommodating section for receiving an IC card arranged to perform contactless communications via the contactless communication antenna, comprising steps of: receiving, via a wired connection, an IC card, said IC card comprising an IC card control section and an IC card storage section, said IC card arranged to perform contactless communications via the contactless communication antenna wherein the IC card storage section comprises a first predetermined area and a second predetermined area; acquiring authentication information from a first predetermined area of an IC card storage section on said IC card and storing said authentication information in a mobile information storage section; authenticating the received authentication information; after a positive authentication, acquiring display information from a second predetermined area (39, 74) of the IC card storage section and storing said display information in said mobile information storage section; and displaying the display information in said one or more display areas (SDA 1, SDA 2, SADA) in response to a display request, wherein the display information comprises information identifying the function of the IC card. receiving, via a wired connection, an IC card, said IC card comprising an IC card control section and an IC card storage section, said IC card arranged to perform contactless communications via the contactless communication antenna wherein the IC card storage section comprises a first predetermined area and a second predetermined area; acquiring authentication information from a first predetermined area of an IC card storage section on said IC card and storing said authentication information in a mobile information storage section; authenticating the received authentication information; after a positive authentication, acquiring display information from a second predetermined area (39, 74) of the IC card storage section and storing said display information in said mobile information storage section; and displaying the display information in said one or more display areas (SDA 1, SDA 2, SADA) in response to a display request, wherein the display information comprises information identifying the function of the IC card.