mhurhangee/ep-ind-claims huggingface dataset:
A terminal control substrate comprising: a base plate mounted on a terminal device; a first module (512, 612) fixed to the base plate; an external connection terminal (513a to 513c) fixed to the base plate and to which a component comprising a second module capable of substituting for the first module (512, 612) is attachable; and a controller (511, 611) connected to the first module (512, 612) and the external connection terminal (513a to 513c) through a communication line, wherein, when the first module (512, 612) is normal, the controller (511, 611) performs control in the terminal device by using the first module (512, 612), and when the first module (512, 612) is not normal, the controller (511, 611) performs in the terminal device by using the second module of the component attached to the external connection terminal (513a to 513c); wherein the controller (511, 611) detects whether or not the second module of the component attached to the first module (512, 612) or the external connection terminal (513a to 513c) is normal, based on a response to a reset signal supplied to the first module (512, 612) or the external connection terminal (513a to 513c); and wherein the external connection terminal (513a to 513c) is provided in plurality, and when the first module (512, 612) is not normal, the controller (511, 611) detects a presence or absence of attachment of the component comprising the second module to the plurality of external connection terminals (513a to 513c) in a preset order and performs control in the terminal device by using the detectable second module. a base plate mounted on a terminal device; a first module (512, 612) fixed to the base plate; an external connection terminal (513a to 513c) fixed to the base plate and to which a component comprising a second module capable of substituting for the first module (512, 612) is attachable; and a controller (511, 611) connected to the first module (512, 612) and the external connection terminal (513a to 513c) through a communication line, wherein, when the first module (512, 612) is normal, the controller (511, 611) performs control in the terminal device by using the first module (512, 612), and when the first module (512, 612) is not normal, the controller (511, 611) performs in the terminal device by using the second module of the component attached to the external connection terminal (513a to 513c); wherein the controller (511, 611) detects whether or not the second module of the component attached to the first module (512, 612) or the external connection terminal (513a to 513c) is normal, based on a response to a reset signal supplied to the first module (512, 612) or the external connection terminal (513a to 513c); and wherein the external connection terminal (513a to 513c) is provided in plurality, and when the first module (512, 612) is not normal, the controller (511, 611) detects a presence or absence of attachment of the component comprising the second module to the plurality of external connection terminals (513a to 513c) in a preset order and performs control in the terminal device by using the detectable second module.
A mounting assembly for a control pedal of a vehicle comprising: two walls (3, 4) arranged in parallel in relation to each other, a pivot shaft extending between the walls (3, 4), two locking means (9, 10; 109, 110) arranged to pivotally retain the pivot shaft between the walls (3, 4), at least a control pedal rigidly provided on the pivot shaft, which control pedal and pivot shaft are rotatable around an axis of rotation (8; X), wherein the mounting assembly is provided with a joint which comprises at least one lock protrusion (11; 111) provided on at least one of the locking means (9, 10; 109, 110) and an internal groove (21; 121) provided on at least one of the walls (3, 4), which internal groove the at least one lock protrusion (11; 111) is arranged to engage with when the locking means (9, 10; 109, 110) is in a use position, and wherein the at least one of the locking means (9, 10; 109, 110) further comprises a rotating prevention protrusion (12; 112) extending radially from an outer surface of the locking means, the rotating prevention protrusion (12; 112) being arranged to engage with a stop (25; 123) arranged at the at least one of the walls (3, 4), when in the use position, characterized in that the at least one lock protrusion is provided with lock protrusion parts (12, 16, 17), whereof a first and a second lock protrusion part (16, 17) are arranged to engage with the internal groove and a third lock protrusion part is arranged to mesh with the stop at an inner side of at least one of the walls (3, 4), the third lock protrusion part being the rotating prevention protrusion. two walls (3, 4) arranged in parallel in relation to each other, a pivot shaft extending between the walls (3, 4), two locking means (9, 10; 109, 110) arranged to pivotally retain the pivot shaft between the walls (3, 4), at least a control pedal rigidly provided on the pivot shaft, which control pedal and pivot shaft are rotatable around an axis of rotation (8; X), wherein the mounting assembly is provided with a joint which comprises at least one lock protrusion (11; 111) provided on at least one of the locking means (9, 10; 109, 110) and an internal groove (21; 121) provided on at least one of the walls (3, 4), which internal groove the at least one lock protrusion (11; 111) is arranged to engage with when the locking means (9, 10; 109, 110) is in a use position, and wherein the at least one of the locking means (9, 10; 109, 110) further comprises a rotating prevention protrusion (12; 112) extending radially from an outer surface of the locking means, the rotating prevention protrusion (12; 112) being arranged to engage with a stop (25; 123) arranged at the at least one of the walls (3, 4), when in the use position, characterized in that the at least one lock protrusion is provided with lock protrusion parts (12, 16, 17), whereof a first and a second lock protrusion part (16, 17) are arranged to engage with the internal groove and a third lock protrusion part is arranged to mesh with the stop at an inner side of at least one of the walls (3, 4), the third lock protrusion part being the rotating prevention protrusion.
A microwave oven comprising an oven chamber, a door hinged to said chamber and safety switches (12, 14, 16) for providing signals on door position to a central process unit of the oven, said safety switches comprise a switch adjacent a sliding cover element adapted to protect the switch in an open configuration of the door, characterized in that the oven comprises a protruding actuator shaped as a shark fin and fixed to a door inner frame and acting on an edge of the sliding cover element forcing it, with its curved profile, to move sidewise when the door is closed on the oven chamber in order to make the switch accessible.
An apparatus for aligning and positioning a plurality of pieces of food dough, which are arranged in a perpendicular direction to a moving direction of the pieces of food dough, at predetermined distances, the apparatus comprising: a holding unit having a plurality of holding mechanisms to hold a plurality of pieces of food dough arranged in the perpendicular direction; a driving mechanism configured to drive the holding unit along the moving direction; and a plurality of guide members configured to control the respective traveling pathways of the holding mechanisms and the distances between the holding mechanisms in the perpendicular direction; wherein the guide members comprise at least an upstream part, an intermediate part (101, 103), and a downstream part, which are disposed along the moving direction from an upstream to a downstream, wherein the upstream part and the downstream part are disposed parallel to the moving direction, and wherein the guide members are configured to be disposed in a manner that downstream distances between the guide members in the perpendicular direction are wider or narrower than upstream distances between the guide members; characterized in that the driving mechanism is further configured to move the holding unit around an oval-shaped orbit or circular orbit in one direction. a holding unit having a plurality of holding mechanisms to hold a plurality of pieces of food dough arranged in the perpendicular direction; a driving mechanism configured to drive the holding unit along the moving direction; and a plurality of guide members configured to control the respective traveling pathways of the holding mechanisms and the distances between the holding mechanisms in the perpendicular direction; wherein the guide members comprise at least an upstream part, an intermediate part (101, 103), and a downstream part, which are disposed along the moving direction from an upstream to a downstream, wherein the upstream part and the downstream part are disposed parallel to the moving direction, and wherein the guide members are configured to be disposed in a manner that downstream distances between the guide members in the perpendicular direction are wider or narrower than upstream distances between the guide members;
A printhead die comprising: a number of sensors to measure properties of a number of property control elements associated with the printhead die; characterized in that the printhead die comprises: a pass gate to communicate a number of signals to an application specific integrated circuit (ASIC) via an analog bus using control logic associated with the pass gate; and a bi-directional configuration bus coupled to the printhead die to transmit a number of control signals to the property control elements located on the printhead die. a pass gate to communicate a number of signals to an application specific integrated circuit (ASIC) via an analog bus using control logic associated with the pass gate; and a bi-directional configuration bus coupled to the printhead die to transmit a number of control signals to the property control elements located on the printhead die.
Security cassette for valuable papers, comprising - a cover - a receiving area for receiving a plurality of the valuable papers, wherein the receiving area is closeable with the cover, - a protective device for the valuable papers which can be triggered automatically in order to thereby devalue the valuable papers in the receiving area, wherein the security cassette comprises at least one sub-divider designed to be mounted in the receiving area so as to divide the receiving area in order to be able to hold valuable paper bundles each having a plurality of valuable papers in bundles such that the valuable paper bundles held by the sub-divider are arranged parallel upright in the receiving area, characterized in that the at least one sub-divider has a ribbed structure, wherein - either two adjacent valuable paper bundles held by the sub-divider are respectively separated from one another by an intermediate space, - or a valuable paper bundle is respectively held between two sub-dividers in such a way that there result multiple intermediate spaces between the sub-dividers and the valuable paper bundle. - a cover - a receiving area for receiving a plurality of the valuable papers, wherein the receiving area is closeable with the cover, - a protective device for the valuable papers which can be triggered automatically in order to thereby devalue the valuable papers in the receiving area, - either two adjacent valuable paper bundles held by the sub-divider are respectively separated from one another by an intermediate space, - or a valuable paper bundle is respectively held between two sub-dividers in such a way that there result multiple intermediate spaces between the sub-dividers and the valuable paper bundle.
A transmission method for facilitating enhanced use of transmission bandwidth for vehicle-to-vehicle wireless communication, the transmission method comprising: determining a dynamic pilot rate based upon one or more current conditions (102, 104, 106) associated with a first moving vehicle; and one of: encoding information about the dynamic pilot rate in each frame of a transmission transmitted from the first moving vehicle to a second moving vehicle or conveying the information about the dynamic pilot rate to a second moving vehicle by transmitting the information about the dynamic pilot rate along with a corresponding frame of data from the first moving vehicle to the second moving vehicle via a unique waveform. determining a dynamic pilot rate based upon one or more current conditions (102, 104, 106) associated with a first moving vehicle; and one of: encoding information about the dynamic pilot rate in each frame of a transmission transmitted from the first moving vehicle to a second moving vehicle or conveying the information about the dynamic pilot rate to a second moving vehicle by transmitting the information about the dynamic pilot rate along with a corresponding frame of data from the first moving vehicle to the second moving vehicle via a unique waveform. encoding information about the dynamic pilot rate in each frame of a transmission transmitted from the first moving vehicle to a second moving vehicle or conveying the information about the dynamic pilot rate to a second moving vehicle by transmitting the information about the dynamic pilot rate along with a corresponding frame of data from the first moving vehicle to the second moving vehicle via a unique waveform.
An internal combustion engine lubricating oil composition comprising (a) a major amount of an oil of lubricating viscosity; and (b) 0.2 wt. % to 4 wt. %, based on the total weight of the composition, of an oil-soluble titanium compound of Formula I: R 1, R 2, R 3 and R 4 are independently a C 1 -C 20 alkoxy group, and wherein the lubricating oil composition is free of any zinc dialkyldithiophosphate and phosphorus content, and further wherein the lubricating oil composition has a sulfur content not exceeding 0.7 wt. %.
A door latch device which is provided in a door of a vehicle and closes and opens the door by latching and unlatching a striker provided on a main body side of the vehicle, the door latch device comprising: a motor; a mechanical mechanism which is driven by the motor; a door lock ECU configured to control the motor; and a case for accommodating the motor, the mechanical mechanism, and the door lock ECU, wherein the door lock ECU comprises a printed wiring board and a power storage body connected to the printed wiring board, wherein the case has: a partition wall; a first accommodation space for accommodating the motor and the mechanical mechanism on one side of the partition wall; and a second accommodation space for accommodating the printed wiring board and the power storage body on the other side of the partition wall, wherein the partition wall is provided with a power storage body accommodation portion recessed from the second accommodation space toward the first accommodation space, wherein the power storage body is placed in the power storage body accommodation portion, and characterized in that the power storage body is arranged on an opposite side to the mechanical mechanism with the motor interposed between the power storage body and the mechanical mechanism when viewed from a first direction orthogonal to the partition wall. a motor; a mechanical mechanism which is driven by the motor; a door lock ECU configured to control the motor; and a case for accommodating the motor, the mechanical mechanism, and the door lock ECU, wherein the door lock ECU comprises a printed wiring board and a power storage body connected to the printed wiring board, wherein the case has: a partition wall; a first accommodation space for accommodating the motor and the mechanical mechanism on one side of the partition wall; and a second accommodation space for accommodating the printed wiring board and the power storage body on the other side of the partition wall, a partition wall; a first accommodation space for accommodating the motor and the mechanical mechanism on one side of the partition wall; and a second accommodation space for accommodating the printed wiring board and the power storage body on the other side of the partition wall, wherein the partition wall is provided with a power storage body accommodation portion recessed from the second accommodation space toward the first accommodation space, wherein the power storage body is placed in the power storage body accommodation portion, and characterized in that the power storage body is arranged on an opposite side to the mechanical mechanism with the motor interposed between the power storage body and the mechanical mechanism when viewed from a first direction orthogonal to the partition wall.
Method for the joining of a first fibre composite joining partner to at least one second fibre composite joining partner by means of an adhesively bonded joint, wherein the first and the second fibre composite joining partners have a fibre composite material, or consist of such a fibre composite material, and the adhesively bonded joint is formed by an adhesive material that can be cross-linked under the action of temperature, with the steps: - Preparation of the fibre composite joining partners, wherein in the case of at least the first fibre composite joining partner, the matrix material of the fibre composite material is partially cross-linked, - Introduction of the adhesive material into a joint gap between the fibre composite joining partners, and - Tempering of the fibre composite component formed from the fibre composite joining partners and the adhesive material, by means of tempering using a tempering device, so as to fully cross-link at least the matrix material of the first fibre composite joining partner and the adhesive material, wherein for a first time period, the joined fibre composite component is tempered in a range about the current glass transition temperature such that the first fibre composite joining partner becomes plastically deformable, characterized in that, during the tempering process - The degree of cross-linkage of the matrix material of at least the first fibre composite joining partner is detected by means of a sensor system, and the current glass transition temperature of the matrix material is determined from the current degree of cross-linkage, and wherein - Within the first time period the first fibre composite joining partner is plastically deformed so as to configure a predefined thickness and, if necessary, a predefined uniformity of the joint gap. - Preparation of the fibre composite joining partners, wherein in the case of at least the first fibre composite joining partner, the matrix material of the fibre composite material is partially cross-linked, - Introduction of the adhesive material into a joint gap between the fibre composite joining partners, and - Tempering of the fibre composite component formed from the fibre composite joining partners and the adhesive material, by means of tempering using a tempering device, so as to fully cross-link at least the matrix material of the first fibre composite joining partner and the adhesive material, wherein for a first time period, the joined fibre composite component is tempered in a range about the current glass transition temperature such that the first fibre composite joining partner becomes plastically deformable, characterized in that, during the tempering process - The degree of cross-linkage of the matrix material of at least the first fibre composite joining partner is detected by means of a sensor system, and the current glass transition temperature of the matrix material is determined from the current degree of cross-linkage, and wherein - Within the first time period the first fibre composite joining partner is plastically deformed so as to configure a predefined thickness and, if necessary, a predefined uniformity of the joint gap.
Dosimeter for detecting high-energy, fast and low-energy neutrons with a) a neutron converter comprising - a first layer with metal atoms, which convert the energy of the high-energy neutrons to be detected into protons, alpha particles and charged particles in a suitable energy range, so that they are detectable, wherein said metal atoms are stable with respect to radioactivity, - a second layer with hydrogenous polymer for detecting the fast neutrons by an elastic scattering with the protons of the hydrogenous polymer and - a third layer with 6 Li- and/or 10 B-atoms and/or 14 N-atmos for detecting the low-energy neutrons, to cause a (n,α) reaction and/or a (n,p) reaction with the low-energy neutrons, wherein the second layer is located between the first layer and the third layer; and b) a detection element for registering said generated protons, alpha particles and charged particles, on which the third layer rests. a) a neutron converter comprising - a first layer with metal atoms, which convert the energy of the high-energy neutrons to be detected into protons, alpha particles and charged particles in a suitable energy range, so that they are detectable, wherein said metal atoms are stable with respect to radioactivity, - a second layer with hydrogenous polymer for detecting the fast neutrons by an elastic scattering with the protons of the hydrogenous polymer and - a third layer with 6 Li- and/or 10 B-atoms and/or 14 N-atmos for detecting the low-energy neutrons, to cause a (n,α) reaction and/or a (n,p) reaction with the low-energy neutrons, wherein the second layer is located between the first layer and the third layer; and - a first layer with metal atoms, which convert the energy of the high-energy neutrons to be detected into protons, alpha particles and charged particles in a suitable energy range, so that they are detectable, wherein said metal atoms are stable with respect to radioactivity, - a second layer with hydrogenous polymer for detecting the fast neutrons by an elastic scattering with the protons of the hydrogenous polymer and - a third layer with 6 Li- and/or 10 B-atoms and/or 14 N-atmos for detecting the low-energy neutrons, to cause a (n,α) reaction and/or a (n,p) reaction with the low-energy neutrons, b) a detection element for registering said generated protons, alpha particles and charged particles, on which the third layer rests.