mhurhangee/ep-ind-claims huggingface dataset:
A process fluid pressure transmitter comprising: a pressure sensor having an electrical characteristic that changes in response to a deformation of the pressure sensor in response to pressure; measurement circuitry coupled to the pressure sensor and configured to provide an indication of the electrical characteristic; an isolation diaphragm configured to contact the process fluid and deform in response to process fluid pressure; a first fluid volume filled with a substantially incompressible fill fluid fluidically coupling the isolation diaphragm to the pressure sensor; and an overpressure compliant structure coupled to the fill fluid and configured to be substantially rigid at pressures below a selected threshold, but able to deform in response to pressure above the selected threshold, characterized in that the overpressure compliant structure includes a rigid flexible diaphragm that is configured to be rigid at pressures below the selected threshold and deform in response to pressure above the selected threshold, wherein the rigid flexible diaphragm has a first side contacting the substantially incompressible fill fluid and a second side contacting a second fluid volume. a pressure sensor having an electrical characteristic that changes in response to a deformation of the pressure sensor in response to pressure; measurement circuitry coupled to the pressure sensor and configured to provide an indication of the electrical characteristic; an isolation diaphragm configured to contact the process fluid and deform in response to process fluid pressure; a first fluid volume filled with a substantially incompressible fill fluid fluidically coupling the isolation diaphragm to the pressure sensor; and an overpressure compliant structure coupled to the fill fluid and configured to be substantially rigid at pressures below a selected threshold, but able to deform in response to pressure above the selected threshold, characterized in that the overpressure compliant structure includes a rigid flexible diaphragm that is configured to be rigid at pressures below the selected threshold and deform in response to pressure above the selected threshold, wherein the rigid flexible diaphragm has a first side contacting the substantially incompressible fill fluid and a second side contacting a second fluid volume.
A stereo camera comprising: a first mirror that has a first reflective surface which is a curved surface convex in a first direction, has a first vertex, and has a first fan shape; a second mirror that has a second reflective surface convex in a second direction opposite to the first direction, has a second vertex facing the first vertex, and has a second fan shape; an imaging optical system that forms an image of first light emitted from a subject, reflected on the first reflective surface, and then further reflected on the second reflective surface, and second light emitted from the subject and reflected on the second reflective surface; and an image sensor that receives the first light and the second light via the imaging optical system, wherein the second mirror includes an inner mirror and an outer mirror located on an outer peripheral side of the inner mirror, the first mirror is a hyperboloid mirror, the inner mirror is a hyperboloid mirror, the outer mirror is a hyperboloid mirror, the outer mirror has a conic constant different from a conic constant of the inner mirror, the image sensor is disposed at a position where a center position of the image sensor is shifted from an optical axis of the imaging optical system, and the image sensor and the imaging optical system are disposed such that a center line of a fan-shaped image projected on a light-receiving surface (Pi) of the image sensor is non-parallel to a short side of the light-receiving surface (Pi) of the image sensor. a first mirror that has a first reflective surface which is a curved surface convex in a first direction, has a first vertex, and has a first fan shape; a second mirror that has a second reflective surface convex in a second direction opposite to the first direction, has a second vertex facing the first vertex, and has a second fan shape; an imaging optical system that forms an image of first light emitted from a subject, reflected on the first reflective surface, and then further reflected on the second reflective surface, and second light emitted from the subject and reflected on the second reflective surface; and an image sensor that receives the first light and the second light via the imaging optical system, wherein the second mirror includes an inner mirror and an outer mirror located on an outer peripheral side of the inner mirror, the first mirror is a hyperboloid mirror, the inner mirror is a hyperboloid mirror, the outer mirror is a hyperboloid mirror, the outer mirror has a conic constant different from a conic constant of the inner mirror, the image sensor is disposed at a position where a center position of the image sensor is shifted from an optical axis of the imaging optical system, and the image sensor and the imaging optical system are disposed such that a center line of a fan-shaped image projected on a light-receiving surface (Pi) of the image sensor is non-parallel to a short side of the light-receiving surface (Pi) of the image sensor.
A MEMS pressure sensor comprising: - a substrate with an integrated circuit having metal interconnects including a top metal interconnect layer including connection portions of the top metal interconnect layer, - a bottom electrode arrangement (154, 224), and a deformable membrane suspended above said bottom electrode arrangement (154, 224), and - a top electrode arrangement (162, 228) comprising an inner electrode and an outer electrode arranged around the inner electrode, characterized in that - a passivation layer is arranged above the top metal interconnect layer, - an oxide layer is arranged above the passivation layer, - the bottom electrode arrangement (154, 224) is stationary and is formed in a metal layer arranged on the oxide layer, - the top electrode arrangement (162, 228) is applied to the membrane, the top electrode arrangement (162, 228) being formed in a further metal layer, and - vertical vias extend through the oxide layer and the passivation layer, the vertical vias electrically connecting the inner electrode and the outer electrode and the bottom electrode arrangement (162, 228) to the connection portions of the top metal interconnect layer. - a substrate with an integrated circuit having metal interconnects including a top metal interconnect layer including connection portions of the top metal interconnect layer, - a bottom electrode arrangement (154, 224), and a deformable membrane suspended above said bottom electrode arrangement (154, 224), and - a top electrode arrangement (162, 228) comprising an inner electrode and an outer electrode arranged around the inner electrode, - a passivation layer is arranged above the top metal interconnect layer, - an oxide layer is arranged above the passivation layer, - the bottom electrode arrangement (154, 224) is stationary and is formed in a metal layer arranged on the oxide layer, - the top electrode arrangement (162, 228) is applied to the membrane, the top electrode arrangement (162, 228) being formed in a further metal layer, and - vertical vias extend through the oxide layer and the passivation layer, the vertical vias electrically connecting the inner electrode and the outer electrode and the bottom electrode arrangement (162, 228) to the connection portions of the top metal interconnect layer.
Adjusting device for a motor vehicle interior component, comprising a housing in which a rotational element is provided in a rotatable manner about a rotation axis, wherein a first locking element is rotationally fixed to the rotational element, and a second locking element is provided on the housing, said locking elements being reversibly movable relative to each other from a locked situation, in which the locking elements (21, 22) interact with each other in a positively and/or non-positively engaged manner, into an adjustment situation, in which said positive and/or non-positive engagement is released, and wherein the adjusting device has an adapter plate, characterized in that the adapter plate is provided in a rotatable manner relative to the rotational element and the housing and at least temporarily drives a locking element (21, 22).
An expansion bolt that has a bolt shaft with an expansion body and an expansion sleeve (10, 110, 210, 310), wherein the bolt shaft extends from a rear end in the insertion direction forward along a longitudinal axis, wherein the expansion sleeve (10, 110, 210, 310) is arranged in an expansion region of the expansion bolt at the front of the bolt shaft and has a plurality of expansion segments (13, 113, 213, 313) which are separated from one another by slots in the circumferential direction, wherein at least one of the expansion segments (13, 113, 213, 313) has an end portion (20, 120, 220, 320) of reduced wall thickness, which in a non-expanded state faces the expansion body and which is delimited on the outside in the longitudinal direction by two of the slots (14, 15, 16) and in the circumferential direction by a first edge (23, 123, 223, 323) and a second edge (24, 124, 224, 324), wherein the two edges (23, 123, 223, 323, 24, 124, 224, 324) extend in the circumferential direction from a first of the slots (14, 15, 16) to a second of the slots (14, 15, 16), characterized in that in an imaginary development of the expansion sleeve (10, 110, 210, 310), the first edge (23, 123, 223, 323) extends in the form of an arc between the first of the slots (14, 15, 16) and the second of the slots (14, 15, 16), and in that the second edge (24, 124, 224, 324) extends in the form of an arc between the first of the slots (14, 15, 16) and the second of the slots (14, 15, 16). wherein the bolt shaft extends from a rear end in the insertion direction forward along a longitudinal axis, wherein the expansion sleeve (10, 110, 210, 310) is arranged in an expansion region of the expansion bolt at the front of the bolt shaft and has a plurality of expansion segments (13, 113, 213, 313) which are separated from one another by slots in the circumferential direction, wherein at least one of the expansion segments (13, 113, 213, 313) has an end portion (20, 120, 220, 320) of reduced wall thickness, which in a non-expanded state faces the expansion body and which is delimited on the outside in the longitudinal direction by two of the slots (14, 15, 16) and in the circumferential direction by a first edge (23, 123, 223, 323) and a second edge (24, 124, 224, 324), wherein the two edges (23, 123, 223, 323, 24, 124, 224, 324) extend in the circumferential direction from a first of the slots (14, 15, 16) to a second of the slots (14, 15, 16), characterized in that in an imaginary development of the expansion sleeve (10, 110, 210, 310), the first edge (23, 123, 223, 323) extends in the form of an arc between the first of the slots (14, 15, 16) and the second of the slots (14, 15, 16), and in that the second edge (24, 124, 224, 324) extends in the form of an arc between the first of the slots (14, 15, 16) and the second of the slots (14, 15, 16).
A liquid container comprising: a first chamber that is surrounded by a plurality of walls (171-176, 138) and is configured to contain a liquid; a liquid inlet port for pouring the liquid into the first chamber; an air opening port that is opened to air; a liquid lead-out port that leads the liquid out of the first chamber; an air lead-in port that is formed in, out of the plurality of walls (171-176, 138) surrounding the first chamber, a first wall different from the wall constituting a top surface; and an air communication path that allows the air opening port and the air lead-in port to communicate with each other, characterized in that the air lead-in port is separated from all corner portions where the first wall crosses with another wall in the first chamber. a first chamber that is surrounded by a plurality of walls (171-176, 138) and is configured to contain a liquid; a liquid inlet port for pouring the liquid into the first chamber; an air opening port that is opened to air; a liquid lead-out port that leads the liquid out of the first chamber; an air lead-in port that is formed in, out of the plurality of walls (171-176, 138) surrounding the first chamber, a first wall different from the wall constituting a top surface; and an air communication path that allows the air opening port and the air lead-in port to communicate with each other, characterized in that the air lead-in port is separated from all corner portions where the first wall crosses with another wall in the first chamber.
A lighting system with thermal protection, comprising a LED light bulb comprising one or more LEDs connected in series between a high voltage terminal of the LED light bulb and a low voltage terminal of the LED light bulb, the LED light bulb further comprising a negative temperature coefficient resistor connected in parallel with the one or more LEDs between the high voltage terminal and the low voltage terminal of the LED light bulb, wherein the lighting system with thermal protection further comprises a power management device connected to the high and low voltage terminals of the LED light bulb and configured to be connected to a power supply, the power management device comprising a current regulator and a central processing unit configured to control the current regulator so as to regulate the current supplied to the LED light bulb according to the temperature of the one or more LEDs measured by the central processing unit through the NTC resistor, wherein the LED light bulb further comprises a reverse-biased diode provided between the high voltage terminal and the NTC resistor or provided between the NTC resistor and the low voltage terminal, the central processing unit being configured to measure the temperature of the one or more LEDs by applying, on the low voltage terminal of the LED light bulb, a higher voltage than that applied on the high voltage terminal of the LED light bulb, said temperature being derived using a resistor bridge including the NTC resistor of the LED light bulb, and the lighting system with thermal protection being characterized in that the central processing unit is configured, prior to each temperature measurement, to discharge the line between the high and low voltage terminals of the LED light bulb by applying an identical voltage on the high and low voltage terminals of the LED light bulb.
Painting plant comprising at least one painting booth containing a painting system intended to apply paint onto objects placed in the booth, and comprising a magazine (19, 119) containing a plurality of cartridges containing paint, and a system for automatically transporting the cartridges from the magazine (19, 119) to feeding stations which feed the paint from the cartridges to the painting system in the booth, characterized in that the feeding stations expel an empty cartridge as a disposable element, the automatic transport system is a pneumatic transport system comprising a starting station for sending the cartridges from the magazine (19, 119) and at least one arrival station for receiving the cartridges, which is arranged next to the booth and the arrival station comprising a chute which leads into a collection container so that the used cartridges are ejected from the plant to be eliminated.
Offshore supporting structure for wind energy installations, comprising a plurality of spaced-apart horizontal rings and a plurality of framework elements arranged between the horizontal rings, said framework elements supporting respectively adjacent horizontal rings and in each case being connected to a horizontal ring at terminal points of intersection, wherein one, some or all framework elements comprise two uncrossed struts which are partially or completely curved in an arc-shaped manner, characterized in that the struts of a respective framework element are braced with one another by means of one or more connecting elements, wherein the connecting element(s) are connected to the struts in such regions which are spaced vertically from a point of smallest spacing between the struts of a respective framework element.
A halogen-free recyclable moisture barrier blister package comprising a lidding film and a base, the base having a plurality of base cavities each configured to hold an individual product portion, the lidding film and base being heat sealed together about a perimeter of each of the plurality of base cavities, and: the base comprises a thermoformed sheet having one or more layers of cyclic olefin copolymer in combination with one or more layers of polyolefin; the lidding film comprises a laminated or extruded sheet having one or more layers of polyolefin, or one or more layers of polyolefin in combination with one or more layers of COC; wherein the lidding film and base have adjacent polyolefin layers heat sealing the lidding film around the perimeter of each base cavity; the combination of the base and the lidding film is recyclable in a single plastic polyolefin waste stream based on the polyolefin layer(s) of the lidding film and/or the base; the package has a moisture vapor transmission rate (MVTR) measured via a 5-week weight gain test at 40°C and 75% relative humidity as defined in ASTM D7709 of no greater than 2 milligram per cavity per 24 hours for a standard capsule size 0 cavity; wherein the polyolefin is polypropylene or polyethylene, and the lidding film and base are recyclable in a single plastic waste stream, namely a PP or PE plastic waste stream depending on the type of polyolefin (PP or PE). the base comprises a thermoformed sheet having one or more layers of cyclic olefin copolymer in combination with one or more layers of polyolefin; the lidding film comprises a laminated or extruded sheet having one or more layers of polyolefin, or one or more layers of polyolefin in combination with one or more layers of COC; wherein the lidding film and base have adjacent polyolefin layers heat sealing the lidding film around the perimeter of each base cavity; the combination of the base and the lidding film is recyclable in a single plastic polyolefin waste stream based on the polyolefin layer(s) of the lidding film and/or the base; the package has a moisture vapor transmission rate (MVTR) measured via a 5-week weight gain test at 40°C and 75% relative humidity as defined in ASTM D7709 of no greater than 2 milligram per cavity per 24 hours for a standard capsule size 0 cavity; wherein the polyolefin is polypropylene or polyethylene, and the lidding film and base are recyclable in a single plastic waste stream, namely a PP or PE plastic waste stream depending on the type of polyolefin (PP or PE).
A terminal apparatus supporting Time Division Duplex enhancement for UL-DL Interference Management and Traffic Adaptation, TDD eIMTA, the terminal apparatus being set with a physical hybrid ARQ indicator channel, PHICH, resource for avoiding a conflict between its PHICH resource and a PHICH resource of a legacy terminal apparatus, the terminal apparatus being a terminal apparatus to which a first UL-DL configuration has been indicated by a System Information Block Type 1, SIB1, and to which a second UL-DL configuration has been dynamically indicated, the first UL-DL configuration being to be used by the legacy terminal apparatus and the second UL-DL configuration being different from the first UL-DL configuration, the terminal apparatus comprising: a radio transmitting section adapted to transmit uplink data in a first UL subframe, in a frame according to the second UL-DL configuration, a radio receiving section adapted to receive, in a DL subframe, a signal including a response signal for the uplink data transmitted in the first UL subframe, wherein the DL subframe is a subframe positioned after the first UL subframe and defined in the second UL-DL configuration; and a signal demultiplexing section that is adapted to demultiplex, from the received signal in the DL subframe, the response signal in a first PHICH resource, wherein the first PHICH resource is different from a second PHICH resource secured in a same DL subframe in the first UL-DL configuration, the second PHICH resource being for a response signal for uplink data transmitted from the legacy terminal apparatus in a second UL subframe, wherein the first and second UL subframes are timed differently in the second UL-DL configuration and the first UL-DL configuration, respectively. a radio transmitting section adapted to transmit uplink data in a first UL subframe, in a frame according to the second UL-DL configuration, a radio receiving section adapted to receive, in a DL subframe, a signal including a response signal for the uplink data transmitted in the first UL subframe, wherein the DL subframe is a subframe positioned after the first UL subframe and defined in the second UL-DL configuration; and a signal demultiplexing section that is adapted to demultiplex, from the received signal in the DL subframe, the response signal in a first PHICH resource, wherein the first PHICH resource is different from a second PHICH resource secured in a same DL subframe in the first UL-DL configuration, the second PHICH resource being for a response signal for uplink data transmitted from the legacy terminal apparatus in a second UL subframe, wherein the first and second UL subframes are timed differently in the second UL-DL configuration and the first UL-DL configuration, respectively.
A control device for controlling a high-pressure fuel supply pump comprising: - an anchor; - a fixed core configured to attract the anchor with an electromagnetic force; - a suction valve configured to be opened or closed when the anchor is sucked by the fixed core; and - an electromagnetic force generation unit configured to generate the electromagnetic force when applied with a driving voltage, wherein the control device comprises a control unit configured to perform control to lower a driving current from a peak current before a timing at which the anchor is sucked by the fixed core and collides in an operation state where an engine is under no load and an engine rotation speed is equal to or less than a set rotation speed, wherein the control unit estimates the timing at which the anchor is sucked by the fixed core and collides by differentiating the driving current flowing by the driving voltage once, and performs control to lower a driving current from a peak current before the estimated timing. - an anchor; - a fixed core configured to attract the anchor with an electromagnetic force; - a suction valve configured to be opened or closed when the anchor is sucked by the fixed core; and - an electromagnetic force generation unit configured to generate the electromagnetic force when applied with a driving voltage, wherein the control device comprises a control unit configured to perform control to lower a driving current from a peak current before a timing at which the anchor is sucked by the fixed core and collides in an operation state where an engine is under no load and an engine rotation speed is equal to or less than a set rotation speed, wherein the control unit estimates the timing at which the anchor is sucked by the fixed core and collides by differentiating the driving current flowing by the driving voltage once, and performs control to lower a driving current from a peak current before the estimated timing.