mhurhangee/patent-ind-claim-en huggingface dataset:
A tool for the injection molding of plastic molded parts, with two tool halves , namely a nozzle component and an ejector component , which are movable in relation to each other, wherein a first of the two tool halves has - a mold plate , which carries at least one mold insert with a multiplicity of mold cavities , or - a mold plate with a mold insert support platen , which carries at least one mold insert with a multiplicity of mold cavities , wherein the mold cavities of the first of the two tool halves are designed to form molded parts in conjunction with complementary cavities present on the second of the two tool halves , wherein the mold insert of each mold cavity is assigned a slide , which is in each case arranged movably between two positions over or in a cavity-side surface of the mold insert , characterized in that the slide has at least one guide element , which is in engagement with a counterpart guide element in the mold insert , wherein a connection bolt extends from the slide in the direction of the mold plate or of the mold insert support platen and is guided in a guide groove of a rotary ring , wherein a plurality of connection bolts of a plurality of slides are arranged circumferentially along the circumference of the rotary ring , distributed in a corresponding number of guide grooves , and wherein the rotary ring is connected to a drive ring arranged on the mold plate or the mold insert support platen . wherein a first of the two tool halves has - a mold plate , which carries at least one mold insert with a multiplicity of mold cavities , or - a mold plate with a mold insert support platen , which carries at least one mold insert with a multiplicity of mold cavities , - a mold plate , which carries at least one mold insert with a multiplicity of mold cavities , or - a mold plate with a mold insert support platen , which carries at least one mold insert with a multiplicity of mold cavities , wherein the mold cavities of the first of the two tool halves are designed to form molded parts in conjunction with complementary cavities present on the second of the two tool halves , wherein the mold insert of each mold cavity is assigned a slide , which is in each case arranged movably between two positions over or in a cavity-side surface of the mold insert , characterized in that the slide has at least one guide element , which is in engagement with a counterpart guide element in the mold insert , wherein a connection bolt extends from the slide in the direction of the mold plate or of the mold insert support platen and is guided in a guide groove of a rotary ring , wherein a plurality of connection bolts of a plurality of slides are arranged circumferentially along the circumference of the rotary ring , distributed in a corresponding number of guide grooves , and wherein the rotary ring is connected to a drive ring arranged on the mold plate or the mold insert support platen .
A document processing device comprising: a scanner configured to read a document provided on a document table , and take in image data of the document; a control unit configured to detect the document on the document table; and a notification unit configured to provide a notification warning to indicate that the document has not been removed from the document table, wherein the control unit is a controller including a central processing unit that controls each unit of the document processing device; characterized in that the control unit is configured to control the each unit based on a mode set to at least any one of a first operation mode and a second operation mode; - the first operation mode is a mode in which the notification warning is made where the document is on the document table after a print job for printing the image data is ended; and alternatively; - the second operation mode is a mode in which, wherein the document processing device further comprises a display configured to display the image data;the notification warning is made where the document is on the document table after confirming input of the image data that is displayed on the display to the control unit and before the print job is started. a scanner configured to read a document provided on a document table , and take in image data of the document; a control unit configured to detect the document on the document table; and a notification unit configured to provide a notification warning to indicate that the document has not been removed from the document table, wherein the control unit is a controller including a central processing unit that controls each unit of the document processing device; - the first operation mode is a mode in which the notification warning is made where the document is on the document table after a print job for printing the image data is ended; and alternatively; - the second operation mode is a mode in which, wherein the document processing device further comprises a display configured to display the image data;the notification warning is made where the document is on the document table after confirming input of the image data that is displayed on the display to the control unit and before the print job is started.
A capacitive touch sensor for an electronic device , comprising: a trace carrier having a sensing surface and an opposed connecting surface which are connected to each other by first and second side surfaces; a plurality of electrically conductive traces on the trace carrier comprising at least a transmitting trace and a corresponding receiving trace , the transmitting trace forming a capacitive sensing pattern with the corresponding receiving trace on the sensing surface , and the transmitting trace and the receiving trace passing from the sensing surface to the opposed connecting surface along, respectively, the first side surface and the second side surface of the trace carrier to form connection points at the connecting surface ; and a capacitive sensing circuit operable to: electrically couple to the connection points of the transmitting and receiving traces at the connecting surface of the trace carrier ; sense a capacitance change between the transmitting and receiving traces ; and determine a touch position on the sensing surface dependent upon the sensed capacitance change. a trace carrier having a sensing surface and an opposed connecting surface which are connected to each other by first and second side surfaces; a plurality of electrically conductive traces on the trace carrier comprising at least a transmitting trace and a corresponding receiving trace , the transmitting trace forming a capacitive sensing pattern with the corresponding receiving trace on the sensing surface , and the transmitting trace and the receiving trace passing from the sensing surface to the opposed connecting surface along, respectively, the first side surface and the second side surface of the trace carrier to form connection points at the connecting surface ; and a capacitive sensing circuit operable to: electrically couple to the connection points of the transmitting and receiving traces at the connecting surface of the trace carrier ; sense a capacitance change between the transmitting and receiving traces ; and determine a touch position on the sensing surface dependent upon the sensed capacitance change. electrically couple to the connection points of the transmitting and receiving traces at the connecting surface of the trace carrier ; sense a capacitance change between the transmitting and receiving traces ; and determine a touch position on the sensing surface dependent upon the sensed capacitance change.
A power meter for a bicycle , comprising: a body (77; 300; 577) comprising a torque input section (225; 325; 525) and a torque output section (222; 322; 522), the body (77; 300; 577) configured to transmit power between the torque input section (225; 325; 525) and the torque output section (222; 322; 522); and a printed circuit board ("PCB") comprising: a substrate , wherein the substrate is of annular construction; at least one strain measurement device attached to the substrate ; and circuitry , attached to the substrate , characterized in that the body (77; 300; 577) includes a cavity (207; 305) configured for installation of the PCB and the substrate is disposed in the body (77; 300; 577) around the torque input section (225; 325; 525); the at least one strain measurement device is configured to provide a signal indicative of strain detected in the body (77; 300; 577), and the circuitry is configured for interpreting the signal and determining a corresponding power transmitted between the torque input and the torque output section (225, 222; 325. 322; 525, 522). a body (77; 300; 577) comprising a torque input section (225; 325; 525) and a torque output section (222; 322; 522), the body (77; 300; 577) configured to transmit power between the torque input section (225; 325; 525) and the torque output section (222; 322; 522); and a printed circuit board ("PCB") comprising: a substrate , wherein the substrate is of annular construction; at least one strain measurement device attached to the substrate ; and circuitry , attached to the substrate , a substrate , wherein the substrate is of annular construction; at least one strain measurement device attached to the substrate ; and circuitry , attached to the substrate , characterized in that the body (77; 300; 577) includes a cavity (207; 305) configured for installation of the PCB and the substrate is disposed in the body (77; 300; 577) around the torque input section (225; 325; 525); the at least one strain measurement device is configured to provide a signal indicative of strain detected in the body (77; 300; 577), and the circuitry is configured for interpreting the signal and determining a corresponding power transmitted between the torque input and the torque output section (225, 222; 325. 322; 525, 522).
A circuit to generate a sensor output signal in response to an input signal having a logic high level or a logic low level, the circuit comprising: a resistor divider (R1-R3) coupled to a supply voltage and configured to produce a first reference voltage that is a first percentage of the supply voltage or a second reference voltage that is a second percentage of the supply voltage not equal to the first percentage of the supply voltage, wherein the first and second percentages of the supply voltage are neither zero percent nor one-hundred percent; an operational amplifier having a first, feedback input coupled to receive the sensor output signal, a second input selectively coupled to receive the first reference voltage when the input signal is at a logic high level or the second reference voltage when the input signal is at a logic low level, and an output at which a difference signal indicative of a difference between the sensor output signal and the first reference voltage or the second reference voltage is provided; and a pass element having a first terminal at which the sensor output signal is provided, a second terminal, and a third, control terminal responsive to the difference signal to generate the sensor output signal at a level corresponding to the first reference voltage or the second reference voltage. a resistor divider (R1-R3) coupled to a supply voltage and configured to produce a first reference voltage that is a first percentage of the supply voltage or a second reference voltage that is a second percentage of the supply voltage not equal to the first percentage of the supply voltage, wherein the first and second percentages of the supply voltage are neither zero percent nor one-hundred percent; an operational amplifier having a first, feedback input coupled to receive the sensor output signal, a second input selectively coupled to receive the first reference voltage when the input signal is at a logic high level or the second reference voltage when the input signal is at a logic low level, and an output at which a difference signal indicative of a difference between the sensor output signal and the first reference voltage or the second reference voltage is provided; and a pass element having a first terminal at which the sensor output signal is provided, a second terminal, and a third, control terminal responsive to the difference signal to generate the sensor output signal at a level corresponding to the first reference voltage or the second reference voltage.
Combination of a motor vehicle headlight and a coolant circuit of a motor vehicle, the motor vehicle headlight comprising a semiconductor radiation source and a heat sink (18.4, 18.5) which is hydraulically coupled to the coolant circuit , the motor vehicle headlight comprising a housing and a transparent cover plate , which covers a light exit opening of the housing and which, together with the housing , delimits an interior of the motor vehicle headlight , the semiconductor radiation source being arranged in the interior , and that the coolant circuit is an electronic coolant circuit or a battery coolant circuit or an air-conditioning cooling circuit of the motor vehicle, the heat sink (18.4, 18.5) comprising a coolant inlet connection hydraulically connected to the coolant circuit and a coolant outlet connection hydraulically connected to the coolant circuit, and it being possible for coolant of the coolant circuit to flow through the heat sink from the coolant inlet connection to the coolant outlet connection , and more than one heat sink (18.4, 18.5), through which the coolant of the coolant circuit can flow, being arranged in the motor vehicle headlight , characterized in that at least two heat sinks (18.4, 18.5), through which the coolant of the coolant circuit can flow, are arranged in the motor vehicle headlight , the inlets of which heat sinks are hydraulically interconnected upstream of the two heat sinks (18.4, 18.5), and the outlets of which heat sinks are hydraulically interconnected downstream of the two heat sinks (18.4, 18.5). more than one heat sink (18.4, 18.5), through which the coolant of the coolant circuit can flow, being arranged in the motor vehicle headlight , characterized in that at least two heat sinks (18.4, 18.5), through which the coolant of the coolant circuit can flow, are arranged in the motor vehicle headlight , the inlets of which heat sinks are hydraulically interconnected upstream of the two heat sinks (18.4, 18.5), and the outlets of which heat sinks are hydraulically interconnected downstream of the two heat sinks (18.4, 18.5).
Method for detecting a failure in an electronic signal processing system having a signal processing path comprising a configurable functional unit for performing a given function and at least one redundant version of said signal processing path comprising a corresponding configurable functional unit for performing said given function, the method comprising - configuring a first operating point for said functional unit in said signal processing path for performing said given function, - configuring a second operating point for said corresponding functional unit in said redundant version of said signal processing path, said second operating point being different from said first operating point while allowing performing said given function, - applying a same input signal to said functional unit and said corresponding functional unit, - comparing a first output signal produced by said functional unit with a second output signal produced by said corresponding functional unit, - deriving a failure indication from said comparing. - configuring a first operating point for said functional unit in said signal processing path for performing said given function, - configuring a second operating point for said corresponding functional unit in said redundant version of said signal processing path, said second operating point being different from said first operating point while allowing performing said given function, - applying a same input signal to said functional unit and said corresponding functional unit, - comparing a first output signal produced by said functional unit with a second output signal produced by said corresponding functional unit, - deriving a failure indication from said comparing.
A semiconductor package , comprising: a die attach substrate having a semiconductor device mounted to a first surface thereof and having electrical connections mounted to a second surface thereof; an interposer substrate mounted on the first surface of the die-attach substrate and straddling the semiconductor device , the interposer substrate being electrically connected to contact pads on the first surface of the die-attach substrate via solder ball or conductor post connections; a singulated molding compound filled within open spaces between the interposer substrate and the first surface of the die-attach substrate , wherein singulated surfaces of the molding compound reside along the edges of the interposer substrate and the die-attach substrate ; and external electrical connections formed in a grid array on the second surface of the die-attach substrate . a die attach substrate having a semiconductor device mounted to a first surface thereof and having electrical connections mounted to a second surface thereof; an interposer substrate mounted on the first surface of the die-attach substrate and straddling the semiconductor device , the interposer substrate being electrically connected to contact pads on the first surface of the die-attach substrate via solder ball or conductor post connections; a singulated molding compound filled within open spaces between the interposer substrate and the first surface of the die-attach substrate , wherein singulated surfaces of the molding compound reside along the edges of the interposer substrate and the die-attach substrate ; and external electrical connections formed in a grid array on the second surface of the die-attach substrate .
A load detector for detecting a load of a subject on a bed (BD) having a caster (CT), the load detector comprising: a plate portion which is one-fold and which is to be supported above an installation surface (F), on which the load detector is installed, separately from the installation surface (F); and a slope portion (SL, SL1-SL4) which is provided around the plate portion and which is inclined relative to a surface of the plate portion so as to extend between the surface of the plate portion and the installation surface (F), wherein the plate portion includes: a peripheral part ; a placing part on which the caster (CT) is to be placed, at a center of the plate portion and separated from the peripheral part ; and a linking part which extends between the placing part and the peripheral part , the load detector further comprising a strain sensor (G) attached to the linking part , wherein the slope portion (SL, SL1-SL4) includes at least two pairs of slopes each including a pair of slopes opposed to each other such that the placing part is interposed between the pair of slopes. a plate portion which is one-fold and which is to be supported above an installation surface (F), on which the load detector is installed, separately from the installation surface (F); and a slope portion (SL, SL1-SL4) which is provided around the plate portion and which is inclined relative to a surface of the plate portion so as to extend between the surface of the plate portion and the installation surface (F), wherein the plate portion includes: a peripheral part ; a placing part on which the caster (CT) is to be placed, at a center of the plate portion and separated from the peripheral part ; and a linking part which extends between the placing part and the peripheral part , a peripheral part ; a placing part on which the caster (CT) is to be placed, at a center of the plate portion and separated from the peripheral part ; and a linking part which extends between the placing part and the peripheral part , the load detector further comprising a strain sensor (G) attached to the linking part , wherein the slope portion (SL, SL1-SL4) includes at least two pairs of slopes each including a pair of slopes opposed to each other such that the placing part is interposed between the pair of slopes.
A machine to process bars made of aluminium, light alloys, PVC or the like, said machine comprising an elongated base extending in a first direction ; at least one processing station to process and/or cut the bars ; a first roller support device , which is provided with a plurality of first rollers , which are mounted so as to rotate around respective first rotation axes that are parallel to one another and to a second direction transverse to the first direction , and define a lower support surface (P1) for the bars ; a first feeding device to feed the bars along the base and through the processing station in the first direction ; and a second feeding device to feed the bars along the base and through the processing station in the first direction ; said first and second feeding devices being simultaneously provided in the machine so as to operate as an alternative to one another; and characterized in that it comprises, furthermore, a second roller support device , which is provided with a plurality of second rollers , which are mounted so as to rotate around respective second rotation axes that are parallel to one another and to a third direction perpendicular to said lower support surface (PI), and define a lateral support surface (P2) for the bars ; the processing station being provided with an operating unit comprising an annular frame , which extends around said first and second roller support devices , supports a plurality of operating heads movable in the second direction and/or in the third direction , and also supports a cutting blade moving in the first direction and/or in the second direction and/or in the third direction and/or around a third rotation axis parallel to the second direction and/or around a fourth rotation axis parallel to the third direction ; each feeding device comprising an elongated arm extending in the first direction and a feeding member provided on a free end of the elongated arm and configured to engage the bars at a free end thereof.
A method for scheduling data transmission performed by an intermediate node in a data path, the method comprising: receiving , from a preceding node in the data path, a timeslot registration request message requesting a preferred sending time for scheduling at least one Common Public Radio Interface, CPRI, over Ethernet data transmission; determining if a conflict exists between the requested preferred sending time and any previously scheduled timeslots; responsive to determining there is a conflict between the requested preferred sending time and a first previously scheduled timeslot, determining a next available timeslot that satisfies the received timeslot registration request; scheduling the determined next available timeslot for the CPRI over Ethernet data transmission; transmitting , to the preceding node, an update message indicating a modification to the requested preferred sending time; and forwarding , to a subsequent node in the data path, a modified timeslot registration request message requesting the determined next available timeslot for scheduling the CPRI over Ethernet data transmission. receiving , from a preceding node in the data path, a timeslot registration request message requesting a preferred sending time for scheduling at least one Common Public Radio Interface, CPRI, over Ethernet data transmission; determining if a conflict exists between the requested preferred sending time and any previously scheduled timeslots; responsive to determining there is a conflict between the requested preferred sending time and a first previously scheduled timeslot, determining a next available timeslot that satisfies the received timeslot registration request; scheduling the determined next available timeslot for the CPRI over Ethernet data transmission; transmitting , to the preceding node, an update message indicating a modification to the requested preferred sending time; and forwarding , to a subsequent node in the data path, a modified timeslot registration request message requesting the determined next available timeslot for scheduling the CPRI over Ethernet data transmission.