mhurhangee/ep-ind-claims huggingface dataset:
Method for extruding plasticized powdered materials, comprising pressing a starting blank from said material and forcing the same along the extrusion axis through a deformation channel with a variable cross-section, while the material forced through the deformation channel is submitted to oppositely signed cyclic drawing up, shearing, torsion deformations and to two oppositely signed cyclic setting deformations directed orthogonally to the extrusion axis and acting in antiphase, the maximal increments of one of these setting deformations being assigned to the material in a plane passing through the extrusion axis, and the second of said deformations at the inlet and the outlet of the deformation channel being orthogonal to said plane; the directions of the maximal increments of said setting during the procedure of forcing the material through the deformation channel being changed by their turning about the channel axis according to any smooth periodic function the period of which is equal to the length of the deformation channel, and the amplitude is equal to 15-75°.
An information processing device comprising: an acquisition unit configured to acquire a plurality of pieces of livestock-farming-related information related to livestock farming; a prediction unit configured to predict a future value of an arbitrary parameter related to livestock farming on a basis of a prediction model generated on a basis of the livestock-farming-related information; a prediction result presentation unit configured to present a prediction result obtained by the prediction unit at a predetermined timing related to livestock farming, a behavior acquisition unit configured to acquire behavior of a user, wherein the prediction result presentation unit presents the prediction result when predetermined behavior of a user is acquired, characterized either in that the prediction result presentation unit presents the prediction result upon the user approaching livestock, or in that it comprises a prediction timing control unit configured to control a timing of the presentation of the prediction result by the prediction result presentation unit, based on an acquired behavior of the user. an acquisition unit configured to acquire a plurality of pieces of livestock-farming-related information related to livestock farming; a prediction unit configured to predict a future value of an arbitrary parameter related to livestock farming on a basis of a prediction model generated on a basis of the livestock-farming-related information; a prediction result presentation unit configured to present a prediction result obtained by the prediction unit at a predetermined timing related to livestock farming, a behavior acquisition unit configured to acquire behavior of a user, wherein the prediction result presentation unit presents the prediction result when predetermined behavior of a user is acquired, characterized either in that the prediction result presentation unit presents the prediction result upon the user approaching livestock, or in that it comprises a prediction timing control unit configured to control a timing of the presentation of the prediction result by the prediction result presentation unit, based on an acquired behavior of the user.
A camera module for a vehicle, said module comprising: a first Printed Circuit Board including a ground portion of conductive material; a second Printed Circuit Board spaced apart from the first PCB; and an outer shield including a tension spring partially bent at a lateral wall surface of the outer shield so as to be arranged at a location corresponding to that of the ground portion; characterized in that said outer shield is configured so as to distance the first PCB from the second PCB at a predetermined interval, and to support the first and second PCBs (10, 20), in that the outer shield supports at least three surfaces of the first and second PCBs (10, 20), and in that the outer shield and the tension spring are integrally formed with conductive material. a first Printed Circuit Board including a ground portion of conductive material; a second Printed Circuit Board spaced apart from the first PCB; and an outer shield including a tension spring partially bent at a lateral wall surface of the outer shield so as to be arranged at a location corresponding to that of the ground portion; characterized in that said outer shield is configured so as to distance the first PCB from the second PCB at a predetermined interval, and to support the first and second PCBs (10, 20), in that the outer shield supports at least three surfaces of the first and second PCBs (10, 20), and in that the outer shield and the tension spring are integrally formed with conductive material.
Component assembly having a carrier which comprises a metallic structure (3, 17), wherein the metallic structure (3, 17) comprises at least one cavity (5, 5a, 5b, 5c, 5d), and having at least one electrical component (6, 6a, 6b, 6c) which is arranged at least in part in the cavity (5, 5a, 5b, 5c, 5d), where the metallic structure (3, 17) comprises at least two part regions (3a, 3b, 3c, 3d) which are separated from one another, wherein the cavity (5, 5a, 5b, 5c, 5d) is situated between the part regions (3a, 3b, 3c, 3d), characterized in that the metallic structure (3, 17) is not connected to an electrical contact.
Multistage gearbox for motor vehicles with a plurality of forward gears and at least one reverse gear, comprising a plurality of 3-shaft gearboxes and a plurality of shifting elements, with a drive shaft, an output shaft and a plurality of gearbox shafts, differential shafts and sum shafts, wherein a first differential shaft (d1.1) of a first 3-shaft gearbox is connected for conjoint rotation, via a first gearbox shaft, to a first differential shaft (d1.2) of a second 3-shaft gearbox; the drive shaft and a sum shaft of a second 3-shaft gearbox are connected for conjoint rotation; a fourth gearbox shaft (W6; W76) and a second differential shaft (d2.2) of the second 3-shaft gearbox are connected for conjoint rotation; the fourth gearbox shaft (W6; W76) or a fifth gearbox shaft is connected for conjoint rotation to a first differential shaft (d1.3) of a third 3-shaft gearbox; and a third gearbox shaft and a second differential shaft (d2.1) of the first 3-shaft gearbox are connected for conjoint rotation, characterised in that a sum shaft of the first 3-shaft gearbox is connected for conjoint rotation to a sum shaft of the third 3-shaft gearbox, preferably via a second gearbox shaft, and that the output shaft and a second differential shaft (d2.3) of the third 3-shaft gearbox are connected for conjoint rotation.
A pumping head (200; 300) for a high-pressure fuel pump, comprising: a head housing having a bore; a pumping element slidably received in the bore and arranged for reciprocal linear movement along a pumping axis in alternating forward and return strokes together defining a pumping cycle; a first pumping chamber and a second pumping chamber, each pumping chamber (240, 242) being defined, in part, by the pumping element; an inlet means (290; 314) for delivering fluid to the first pumping chamber from a source of fluid; an outlet means (246, 248) for conveying fluid from the second pumping chamber to an outlet of the pumping head (200;300); and a transfer means (260, 262) for conveying fluid from the first pumping chamber to the second pumping chamber; wherein forward strokes of the pumping element cause an increase in volume of the first pumping chamber and a decrease in volume of the second pumping chamber, thereby to cause fluid to flow into the first pumping chamber from the inlet means (290; 314) and to cause fluid to flow out of the second pumping chamber to the outlet means (246, 248); and wherein return strokes of the pumping element causes a decrease in volume of the first pumping chamber and an increase in volume of the second pumping chamber, thereby to cause fluid to flow from the first chamber to the second chamber through the transfer means (260, 262), characterised in that the first pumping chamber is larger in cross-sectional area in a plane normal to the pumping axis than the second pumping chamber. a head housing having a bore; a pumping element slidably received in the bore and arranged for reciprocal linear movement along a pumping axis in alternating forward and return strokes together defining a pumping cycle; a first pumping chamber and a second pumping chamber, each pumping chamber (240, 242) being defined, in part, by the pumping element; an inlet means (290; 314) for delivering fluid to the first pumping chamber from a source of fluid; an outlet means (246, 248) for conveying fluid from the second pumping chamber to an outlet of the pumping head (200;300); and a transfer means (260, 262) for conveying fluid from the first pumping chamber to the second pumping chamber; wherein forward strokes of the pumping element cause an increase in volume of the first pumping chamber and a decrease in volume of the second pumping chamber, thereby to cause fluid to flow into the first pumping chamber from the inlet means (290; 314) and to cause fluid to flow out of the second pumping chamber to the outlet means (246, 248); and wherein return strokes of the pumping element causes a decrease in volume of the first pumping chamber and an increase in volume of the second pumping chamber, thereby to cause fluid to flow from the first chamber to the second chamber through the transfer means (260, 262), characterised in that the first pumping chamber is larger in cross-sectional area in a plane normal to the pumping axis than the second pumping chamber.
A method of making an article of footwear, comprising: - knitting a knitted textile element of unitary warp knit construction having a first knit layer, a second knit layer that overlays the first knit layer and is continuous with the first knit layer along a common edge of the knitted textile element that extends along a direction of knitting process, an interlayer knit stitch line that interconnects the first knit layer and the second knit layer, and at least one knitted indicating portion located along the common edge, the common edge and the interlayer knit stitch line collectively defining an outline of a knitted component; - removing the knitted component from the knitted textile element; and - separating the knitted component along the at least one knitted indicating portion to create an opening in the knitted component; and - forming the knitted component into a seamless bootie or a textile upper. - knitting a knitted textile element of unitary warp knit construction having a first knit layer, a second knit layer that overlays the first knit layer and is continuous with the first knit layer along a common edge of the knitted textile element that extends along a direction of knitting process, an interlayer knit stitch line that interconnects the first knit layer and the second knit layer, and at least one knitted indicating portion located along the common edge, the common edge and the interlayer knit stitch line collectively defining an outline of a knitted component; - removing the knitted component from the knitted textile element; and - separating the knitted component along the at least one knitted indicating portion to create an opening in the knitted component; and - forming the knitted component into a seamless bootie or a textile upper.
A method for managing an antenna panel, comprising: Receiving, by a network device, capability information that is of an antenna panel and that is from a terminal device; and sending, by the network device, first indication information to the terminal device, wherein the first indication information is used to indicate the terminal device to activate or deactivate one or more antenna panels; wherein if the first indication information is used to indicate the terminal device to activate the one or more first antenna panels, the method further characterized by: sending by the network device, first time information to the terminal device, wherein the first time information is used to indicate that the terminal device is to keep the one or more first antenna panels in an active state after a first time ends. Receiving, by a network device, capability information that is of an antenna panel and that is from a terminal device; and sending, by the network device, first indication information to the terminal device, wherein the first indication information is used to indicate the terminal device to activate or deactivate one or more antenna panels; wherein if the first indication information is used to indicate the terminal device to activate the one or more first antenna panels, the method further characterized by: sending by the network device, first time information to the terminal device, wherein the first time information is used to indicate that the terminal device is to keep the one or more first antenna panels in an active state after a first time ends.
Contactor having an energy-efficient coil control means, wherein the coil control means comprises connections A1/A2 (1, 2), which, after a control voltage has been applied, control a coil by means of a switch-on pulse, which coil is formed by a comparator 1 and wherein a comparator 2 is formed as a multivibrator, characterized in that the comparators 1 and 2 (5, 6) on the output side alternately control field-effect transistors FET1 and FET2 (7, 8), wherein, given a conducting orientation of the field-effect transistor FET1, the field-effect transistor FET2, which generates a pulse width modulation, is bypassed so that a switch-on pulse acts in full and wherein, after the switch-on pulse has elapsed, the field-effect transistor FET1 blocks, wherein exclusively the PWM of the field-effect transistor FET2 now acts on the coil.
A powder material, comprising: quartz glass powder, titanium powder, and manganese powder, wherein a weight proportion of the quartz glass powder is 5% to 90%, a weight proportion of the titanium powder is 4% to 80%, and a weight proportion of the manganese powder is 4% to 80%.
An electronic device comprising: a housing; a battery included within the housing; a connector adapted to electrically connect to an external power supply device including an integrated circuit; and a power management unit included within the housing and electrically connected to the connector, wherein the power management unit is configured to communicate with the IC of the external power supply device when connected, and wherein the power management unit is configured to: control the external power supply device to transmit a first charging current of a first current value during a communication, the communication comprising at least one of a first communication for determining a type of the external power supply device, a second communication for sensing a connection of the external power supply device, or a third communication for determining a power value which can be supplied by the external power supply device; and control the external power supply device to transmit a second charging current of a second current value greater than the first current value during at least a part of a period in which the communication is not performed. a housing; a battery included within the housing; a connector adapted to electrically connect to an external power supply device including an integrated circuit; and a power management unit included within the housing and electrically connected to the connector, wherein the power management unit is configured to communicate with the IC of the external power supply device when connected, and wherein the power management unit is configured to: control the external power supply device to transmit a first charging current of a first current value during a communication, the communication comprising at least one of a first communication for determining a type of the external power supply device, a second communication for sensing a connection of the external power supply device, or a third communication for determining a power value which can be supplied by the external power supply device; and control the external power supply device to transmit a second charging current of a second current value greater than the first current value during at least a part of a period in which the communication is not performed. control the external power supply device to transmit a first charging current of a first current value during a communication, the communication comprising at least one of a first communication for determining a type of the external power supply device, a second communication for sensing a connection of the external power supply device, or a third communication for determining a power value which can be supplied by the external power supply device; and control the external power supply device to transmit a second charging current of a second current value greater than the first current value during at least a part of a period in which the communication is not performed.
Coin separation device, having - a conveying device for conveying coins in a conveying direction out of an input container along a conveying section, - a testing device which is arranged on the conveying section for recognizing a coin type of a coin which is conveyed along the conveying section, and - an accelerating device which is realized to accelerate a coin conveyed along the conveying section in dependence on recognition by the testing device in such a manner that the coin is conveyed from the conveying section into a coin collecting device, wherein the accelerating device is realized, in dependence on the coin type of the coin recognized by the testing device, to act upon the coin for acceleration by the coin being accelerated in a first manner of acceleration when the coin comprises a first coin type, and in a second manner of acceleration which is different to the first manner of acceleration when the coin comprises a second coin type, wherein the conveying direction in which the conveying device conveys coins out of the input container is directed against a direction of gravity at least with one direction vector component, characterized in that the acceleration device is realized to accelerate the coin in the conveying direction. - a conveying device for conveying coins in a conveying direction out of an input container along a conveying section, - a testing device which is arranged on the conveying section for recognizing a coin type of a coin which is conveyed along the conveying section, and - an accelerating device which is realized to accelerate a coin conveyed along the conveying section in dependence on recognition by the testing device in such a manner that the coin is conveyed from the conveying section into a coin collecting device, wherein the accelerating device is realized, in dependence on the coin type of the coin recognized by the testing device, to act upon the coin for acceleration by the coin being accelerated in a first manner of acceleration when the coin comprises a first coin type, and in a second manner of acceleration which is different to the first manner of acceleration when the coin comprises a second coin type, wherein the conveying direction in which the conveying device conveys coins out of the input container is directed against a direction of gravity at least with one direction vector component,
Method for integrating network participants into a time-synchronised ad hoc network with the following method steps: - formation of individual clusters (30, 40, 50, 70, 80) of in each case regionally neighbouring network participants (1, 2,..., 19, 20), - time-synchronisation of the network participants (1, 2,..., 19, 20) within each cluster (30, 40, 50, 70, 80), - selection of a network participant on the periphery of each cluster for identification of at least one network participant (21; 21, 22, 23) to be integrated into the respective cluster, wherein the selected network participant is limited to those network participants of a cluster which are positioned within the transmitting or receiving range of a previously determined maximum number of network participants each belonging to another cluster, and - time-synchronisation of the network participants (5, 7; 7) of the respective cluster (70; 70'; 70") with each identified network participant (21; 21, 22, 23). - formation of individual clusters (30, 40, 50, 70, 80) of in each case regionally neighbouring network participants (1, 2,..., 19, 20), - time-synchronisation of the network participants (1, 2,..., 19, 20) within each cluster (30, 40, 50, 70, 80), - selection of a network participant on the periphery of each cluster for identification of at least one network participant (21; 21, 22, 23) to be integrated into the respective cluster, wherein the selected network participant is limited to those network participants of a cluster which are positioned within the transmitting or receiving range of a previously determined maximum number of network participants each belonging to another cluster, and - time-synchronisation of the network participants (5, 7; 7) of the respective cluster (70; 70'; 70") with each identified network participant (21; 21, 22, 23).
Method for liquid level detection with a liquid level detection unit with a capacitive liquid level detector with an input capacitance, said input capacitance changing if the capacitive liquid level detector contacts a liquid, the method comprising the following steps: - generation of a clock signal with a predetermined on-time corresponding to a predetermined sensitivity of the capacitive liquid level detector; - feeding said clock signal both to a reference generator and to the capacitive liquid level detector; - said reference generator generating a control value, derived from an on/off ratio of said clock signal and feeding said control value into a control input of a comparator; - feeding a liquid detection response signal, of said capacitive liquid level detector in response to said change of the input capacitance, into a signal input of the comparator; - said control value determining a control parameter of the comparator, said control parameter being an amplification gain of the signal input of the comparator and/or a threshold value of the comparator; - said comparator triggering an output signal at an output when said liquid detection response signal of the capacitive liquid level detector exceeds said threshold value in response to a change of the input capacitance of the capacitive liquid level detector. - generation of a clock signal with a predetermined on-time corresponding to a predetermined sensitivity of the capacitive liquid level detector; - feeding said clock signal both to a reference generator and to the capacitive liquid level detector; - said reference generator generating a control value, derived from an on/off ratio of said clock signal and feeding said control value into a control input of a comparator; - feeding a liquid detection response signal, of said capacitive liquid level detector in response to said change of the input capacitance, into a signal input of the comparator; - said control value determining a control parameter of the comparator, said control parameter being an amplification gain of the signal input of the comparator and/or a threshold value of the comparator; - said comparator triggering an output signal at an output when said liquid detection response signal of the capacitive liquid level detector exceeds said threshold value in response to a change of the input capacitance of the capacitive liquid level detector.