mhurhangee/ep-ind-claims huggingface dataset:
A clamping device of a workpiece on a tool, comprising a cylinder and a flange, the cylinder being selectively actuated by pressurised fluid and itself comprising a body fixed to the tool when operating and a slide mounted to slide relative to the body, the flange being hinged about a pivot axis on the slide, the body comprising a front face beyond which the flange projects when it is in a gripping position to clamp the workpiece, the flange also having a release position it reaches at least partially by pivoting about the pivot axis, the device comprising guide members (15, 16) which comprise a fixed guide member relative to the body and a mobile guide member connected to the flange cooperating together to drive the flange in a rotation movement about the pivot axis at least to completion of travel towards the release position and as per a translation movement at least to completion of travel towards the gripping position, the device being characterized in that the fixed guide member comprises at least one hollowed groove in the body and the mobile guide member comprises at least one finger engaged in the groove.
A diaphragm actuator comprising: a first spring operatively coupled to a diaphragm plate and an actuator stem; a second spring operatively coupled to the actuator stem; and a movable spring seat disposed between the first and second springs, characterised in that, the second spring is configured to be serially operative with the first spring. a first spring operatively coupled to a diaphragm plate and an actuator stem; a second spring operatively coupled to the actuator stem; and a movable spring seat disposed between the first and second springs, characterised in that, the second spring is configured to be serially operative with the first spring.
Crank drive having a crankshaft journal of a crankshaft of an internal combustion engine, which crankshaft journal has a concavely shaped surface, a bearing element, in which the crankshaft journal is mounted rotatably, and a bearing shell which is arranged between the crankshaft journal and the bearing element and has a convexly shaped first surface which is assigned to the concavely shaped surface of the crankshaft journal, the bearing shell having a second surface which is assigned to the bearing element and is configured in such a way that, as viewed in the longitudinal direction of the crankshaft journal, the bearing shell has a non-constant cross section, and that the surface of the bearing element which faces the bearing shell being adapted with regard to its shape to the second surface of the bearing shell, characterized in that the second surface of the bearing shell is concave and has a smaller curvature here than the concavely shaped surface of the crankshaft journal.
A three-dimensional semiconductor wafer, comprising a semiconductor wafer unit, a connection layer, a conduction layer and a protection layer, wherein the protection layer is arranged on the conduction layer; and, the connection layer and the conduction layer are arranged on the semiconductor wafer unit at a bottom surface of the semiconductor wafer unit, wherein the protection layer is connected to the conduction layer and the protection layer is a SiO2 layer, wherein the connection layer comprises a plurality of three-dimensional connection parts; a first end of each connection part is inserted into the semiconductor wafer unit, and a second end of each connection part is level with the bottom surface of the semiconductor wafer unit; and the connection parts are arranged inside the semiconductor wafer unit in a form of array, the semiconductor wafer unit is defined as an N - area which has a conduction type of N-type; the connection layer is defined as an N + area which has the conduction type of N-type; for array-distributed connection parts, first ends are inserted into the semiconductor wafer unit, and second ends are connected to each other on the bottom surface of the semiconductor wafer unit through the conduction layer; the conduction layer is defined as the N + area which has the conduction type of N-type; and the protection layer is arranged on the conduction layer at the bottom surface of the semiconductor wafer unit.
A lighting device intended for installation in a motor vehicle, including at least one semiconductor light source for emitting beams of light, a primary optical element for focusing at least some of the emitted beams of light, and a secondary optical element, consisting of precisely one projecting reflector, for projecting at least some of the focused light beams in a light exit direction on a roadway ahead of the vehicle for generating a desired light distribution, and the at least one semiconductor light source, the primary optical element and the projecting reflector are located in built-in orientation in the vehicle, of the lighting device vertically one above the other, characterized in that the primary optical element includes at least one optical attachment consisting of a transparent material having total-reflection properties, which attachment focuses at least some of the light beams, emitted by the at least one semiconductor light source, by means of total reflection and refraction at boundary faces of the optical attachment.
A crystallization method, comprising: adding a crystalline S3 component to an SUS-containing oil/fat at 5 to 200 ppm by weight with respect to an amount of the SUS-containing oil/fat at a temperature that is 0 to 2°C higher than a cloud point of the SUS-containing oil/fat so as to be mixed, and performing stirring crystallization, in dry-mode oil/fat separation for obtaining an SUS-rich oil/fat having an SUS content of 60% by weight or more from the SUS-containing oil/fat having an SUS content of 30% by weight or more by employing stirring crystallization and compression filtration, wherein SUS is a 1,3-di-saturated-2-unsaturated glyceride, S3 is a tri-saturated triglyceride, S of each of SUS and S3 is a saturated fatty acid having 16 to 22 carbon atoms, and U of SUS is an unsaturated fatty acid having 18 carbon atoms. adding a crystalline S3 component to an SUS-containing oil/fat at 5 to 200 ppm by weight with respect to an amount of the SUS-containing oil/fat at a temperature that is 0 to 2°C higher than a cloud point of the SUS-containing oil/fat so as to be mixed, and performing stirring crystallization, in dry-mode oil/fat separation for obtaining an SUS-rich oil/fat having an SUS content of 60% by weight or more from the SUS-containing oil/fat having an SUS content of 30% by weight or more by employing stirring crystallization and compression filtration, wherein SUS is a 1,3-di-saturated-2-unsaturated glyceride, S3 is a tri-saturated triglyceride, S of each of SUS and S3 is a saturated fatty acid having 16 to 22 carbon atoms, and U of SUS is an unsaturated fatty acid having 18 carbon atoms.
A method to operate a gas turbine at high loads in an emission compliant capable mode to avoid combustion dynamics while operating with cold fuel and hot fuel combustion hardware, comprising the steps of: (a) performing a gas turbine operational sequence; (b) measuring a gas fuel temperature; and characterized by: (c) providing a designated fuel split for a quaternary nozzle to avoid combustion dynamics in an emission compliant capable mode when a temperature for a gas fuel is below a designated value, the quarternary fuel split being reduced as gas fuel temperature is reduced; and (d) heating the gas fuel to at least the designated value. (a) performing a gas turbine operational sequence; (b) measuring a gas fuel temperature; and characterized by: (c) providing a designated fuel split for a quaternary nozzle to avoid combustion dynamics in an emission compliant capable mode when a temperature for a gas fuel is below a designated value, the quarternary fuel split being reduced as gas fuel temperature is reduced; and (d) heating the gas fuel to at least the designated value. (c) providing a designated fuel split for a quaternary nozzle to avoid combustion dynamics in an emission compliant capable mode when a temperature for a gas fuel is below a designated value, the quarternary fuel split being reduced as gas fuel temperature is reduced; and (d) heating the gas fuel to at least the designated value.
Energy absorption element for an underframe of a motor vehicle (Kfz), characterised in that a) a cross-section profile along a longitudinal direction of the energy absorption element is designed as a constant remaining hollow profile having at least two closed chambers, such that the energy absorption element includes at least two chamber cavities separated from one another, b) the at least two chamber cavities along the longitudinal direction of the energy absorption element have an elongated form and at two longitudinal ends (l 1, l 2) of the energy absorption element have openings or chamber openings, and each chamber cavity is open at the two longitudinal ends (l 1, l 2) of the energy absorption element, and c) each chamber cavity is fluidically connected with a sound generator. a) a cross-section profile along a longitudinal direction of the energy absorption element is designed as a constant remaining hollow profile having at least two closed chambers, such that the energy absorption element includes at least two chamber cavities separated from one another, b) the at least two chamber cavities along the longitudinal direction of the energy absorption element have an elongated form and at two longitudinal ends (l 1, l 2) of the energy absorption element have openings or chamber openings, and each chamber cavity is open at the two longitudinal ends (l 1, l 2) of the energy absorption element, and c) each chamber cavity is fluidically connected with a sound generator.
An electronic assembly (10; 210) comprising: (a) a housing (12; 212); (b) a printed circuit board (18; 218) receivable in the housing (12; 212); and (c) a compliant pin header assembly (20; 220) including (i) a header (22; 222) with passages formed to receive compliant pins (24; 224), and (ii) electrically conductive compliant pins (24; 224) receivable in the passages of the header (22; 222), the compliant pin header assembly (20; 220) being mountable in the housing (12; 212) with the compliant pins (24; 224) engaging and electrically connected to the printed circuit board (18; 218), characterized in that each passage of the header (22; 222) being at least partially defined by a substantially flat datum surface and an opposed passage surface, each compliant pin (24; 224) being receivable in a corresponding one of said passages and having a substantially flat pin surface for engaging the datum surface of the corresponding passage and also having an opposed pin surface, the opposed pin surface including a raised portion for engaging the opposed passage surface of the corresponding passage and thereby pressing the substantially flat pin surface of said compliant pin (24; 224) against the datum surface of the corresponding passage when said compliant pin (24; 224) is received in the corresponding passage. (a) a housing (12; 212); (b) a printed circuit board (18; 218) receivable in the housing (12; 212); and (c) a compliant pin header assembly (20; 220) including (i) a header (22; 222) with passages formed to receive compliant pins (24; 224), and (ii) electrically conductive compliant pins (24; 224) receivable in the passages of the header (22; 222), (i) a header (22; 222) with passages formed to receive compliant pins (24; 224), and (ii) electrically conductive compliant pins (24; 224) receivable in the passages of the header (22; 222),
A surface-treated metal sheet for adhesion to polyolefin comprising: a metal sheet; and a resin layer provided on at least one surface of the metal sheet, wherein the resin layer contains an acid-modified polyolefin, the acid-modified polyolefin contains a first acid-modified polyolefin having an acid value of 4 to 5 mgKOH/g and a second acid-modified polyolefin having an acid value of 20 mgKOH/g or more and a melting point of higher than 90°C, wherein the acid value of the first and the second acid-modified polyolefin is measured by a potentiometric titration method prescribed in DIN EN ISO 2114, and a difference between a melting point of the first acid-modified polyolefin and the melting point of the second acid-modified polyolefin is 0°C or more and less than 40°C. a metal sheet; and a resin layer provided on at least one surface of the metal sheet, wherein the resin layer contains an acid-modified polyolefin, the acid-modified polyolefin contains a first acid-modified polyolefin having an acid value of 4 to 5 mgKOH/g and a second acid-modified polyolefin having an acid value of 20 mgKOH/g or more and a melting point of higher than 90°C, wherein the acid value of the first and the second acid-modified polyolefin is measured by a potentiometric titration method prescribed in DIN EN ISO 2114, and a difference between a melting point of the first acid-modified polyolefin and the melting point of the second acid-modified polyolefin is 0°C or more and less than 40°C.
A data processing system comprising: a host computing device comprising at least one processor; a network interface device arranged to couple the host computing device to a network, the network interface device comprising a plurality of buffers for receiving data for transmission from the host computing device; wherein the processor is configured to execute instructions to transfer the data for transmission to one of the plurality of buffers; and the data processing system further comprises: an indicator store configured to store an indication that at least some of the data for transmission has been transferred to the one of the plurality of buffers, the data processing system characterised in that: the indication is associated with a descriptor pointing to the one of the plurality of buffers; and the network interface device is configured to receive the indication, access the descriptor, and transmit the data in the one of the plurality of buffers pointed to by the descriptor. a host computing device comprising at least one processor; a network interface device arranged to couple the host computing device to a network, the network interface device comprising a plurality of buffers for receiving data for transmission from the host computing device; wherein the processor is configured to execute instructions to transfer the data for transmission to one of the plurality of buffers; and the data processing system further comprises: an indicator store configured to store an indication that at least some of the data for transmission has been transferred to the one of the plurality of buffers, the data processing system characterised in that: the indication is associated with a descriptor pointing to the one of the plurality of buffers; and the network interface device is configured to receive the indication, access the descriptor, and transmit the data in the one of the plurality of buffers pointed to by the descriptor. an indicator store configured to store an indication that at least some of the data for transmission has been transferred to the one of the plurality of buffers, the data processing system characterised in that: the indication is associated with a descriptor pointing to the one of the plurality of buffers; and the network interface device is configured to receive the indication, access the descriptor, and transmit the data in the one of the plurality of buffers pointed to by the descriptor. the indication is associated with a descriptor pointing to the one of the plurality of buffers; and the network interface device is configured to receive the indication, access the descriptor, and transmit the data in the one of the plurality of buffers pointed to by the descriptor.
Apparatus, - comprising an electric motor with a stator, an armature, especially a rotor, and at least one coil (12a-f, 40, 58, 104), - wherein the apparatus further comprises detection means (16, 18a-c, 114) configured to determine the inductance L of the coil (12a-f, 40, 58, 104) by measuring at least one electrical quantity related to the coil (12a-f, 40, 58, 104) during operation of the motor and - wherein the apparatus further comprises a pulse width modulation, PWM, circuitry configured to control the electric motor, wherein the PWM circuitry is configured to connect the coil (12a-f, 40, 58, 104) to a voltage supply during charge time periods T on and to disconnect the coil from the voltage supply during discharge time periods T off, wherein - the detection means (16, 18a-c, 114) are configured to determine a discharge current from the coil (12a-f, 40, 58, 104) during discharge time periods T off characterized in that: the detection means (16, 18a-c, 114) are configured to drain a discharge current from the coil (12a-f, 40, 58, 104) through a variable electric resistance provided by a variable resistance circuitry (44, 70) comprising at least one resistor (72, 112a-b), wherein the variable resistance circuitry (44, 70) is adjustable to provide at least two different electric resistance values R1, R2, so that the inductance L can be determined based on a difference between the resistance values R1, R2. - comprising an electric motor with a stator, an armature, especially a rotor, and at least one coil (12a-f, 40, 58, 104), - wherein the apparatus further comprises detection means (16, 18a-c, 114) configured to determine the inductance L of the coil (12a-f, 40, 58, 104) by measuring at least one electrical quantity related to the coil (12a-f, 40, 58, 104) during operation of the motor and - wherein the apparatus further comprises a pulse width modulation, PWM, circuitry configured to control the electric motor, wherein the PWM circuitry is configured to connect the coil (12a-f, 40, 58, 104) to a voltage supply during charge time periods T on and to disconnect the coil from the voltage supply during discharge time periods T off, wherein - the detection means (16, 18a-c, 114) are configured to determine a discharge current from the coil (12a-f, 40, 58, 104) during discharge time periods T off the detection means (16, 18a-c, 114) are configured to drain a discharge current from the coil (12a-f, 40, 58, 104) through a variable electric resistance provided by a variable resistance circuitry (44, 70) comprising at least one resistor (72, 112a-b), wherein the variable resistance circuitry (44, 70) is adjustable to provide at least two different electric resistance values R1, R2, so that the inductance L can be determined based on a difference between the resistance values R1, R2.
A method of wireless communication, comprising: grouping, by a network device, rate matching resources into a plurality of first groups for communication with a wireless terminal, transmitting a channel control indicator identifying at least a first group from the plurality of first groups of rate matching resources, wherein at least some rate matching resources in at least one of the plurality of first groups correspond to a quasi-co-located, QCL, reference signal set, and wherein transmission configuration states are grouped in a plurality of second groups and the identified first group from the first groups of rate matching resources is determined based on a mapping that associates the plurality of first groups with the plurality of second groups. grouping, by a network device, rate matching resources into a plurality of first groups for communication with a wireless terminal, transmitting a channel control indicator identifying at least a first group from the plurality of first groups of rate matching resources, wherein at least some rate matching resources in at least one of the plurality of first groups correspond to a quasi-co-located, QCL, reference signal set, and wherein transmission configuration states are grouped in a plurality of second groups and the identified first group from the first groups of rate matching resources is determined based on a mapping that associates the plurality of first groups with the plurality of second groups.
Device for applying wrap-around labels to objects, in particular containers such as bottles, cans or the like, the trailing edge of said wrap-around label overlapping the leading edge and being fastened adhesively thereto, comprising a transfer unit for transferring the wrap-around label to an object, wherein the transfer unit guides the wrap-around label past an adhesion unit with its reverse side facing outwards in order to impart adhesive properties to the wrap-around label at least in the region of its trailing edge, the transfer unit and/or the adhesion unit being configured such that the trailing edge of the wrap-around label receives no adhesive properties in the region of its upper and/or lower corner, and wherein the transfer unit is configured as a rotatable rotor with retaining means, in particular vacuum retaining means, for a wrap-around label, characterised in that the transfer unit, which is rotatable about an axis of rotation, has a supporting surface (S1; S2) for the trailing edge of the wrap-around label, wherein the surface portions of the supporting surface corresponding to at least one corner region of the trailing edge are configured to be spaced more closely to the axis of rotation than the remaining supporting surface, and wherein the region of the adhesion unit corresponding to the upper and/or lower corner region/s of the trailing edge of the wrap-around label does not transfer adhesive to the wrap-around label.
Method for capping a MEMS wafer, in particular a sensor and/or actuator wafer, with at least one movable mechanical functional element, wherein the MEMS water with the movable mechanical functional element is provided, wherein the movable mechanical functional element is fixed by means of a sacrificial layer, wherein a cap layer is applied to the sacrificial layer and/or at least one intermediate layer applied to the sacrificial layer, wherein the cap layer is structured in such a way that the sacrificial layer is uncovered in sections, wherein the sacrificial layer is removed at least partly in such a way that the functional element is movable again, and wherein a closure layer is applied to the cap layer.
A method for a compiler that emits calls to a software transactional memory system, to provide the transactional memory system with information to employ appropriate methods of implementing transactional semantics for accesses to variables being passed by reference, the method comprising the steps of: at compile time, determining that in one or more code segments being compiled there are one or more variables being passed by reference as arguments of methods to separately compiled code segments whose source cannot be recovered, wherein a code segment is one of the method being called and a call of the method; selecting at least one technique from the group consisting of a fattened by-ref technique, a modified fattened by-ref technique that uses enumerations and structures, and a static fattening technique for communicating the sources of the arguments to ensure the referenced one or more variables can be recovered; modifying the at least one code segment to implement the selected technique; and creating an executable using the modified code segment. at compile time, determining that in one or more code segments being compiled there are one or more variables being passed by reference as arguments of methods to separately compiled code segments whose source cannot be recovered, wherein a code segment is one of the method being called and a call of the method; selecting at least one technique from the group consisting of a fattened by-ref technique, a modified fattened by-ref technique that uses enumerations and structures, and a static fattening technique for communicating the sources of the arguments to ensure the referenced one or more variables can be recovered; modifying the at least one code segment to implement the selected technique; and creating an executable using the modified code segment.