mhurhangee/ep-ind-claims huggingface dataset:
A method for adjusting an IP network load, wherein network devices of the IP network are interconnected to form a multi-stage CLOS topology structure, the method comprising: receiving an IP packet flow; and adjusting a forwarding path of an IP packet belonging to the IP packet flow according to a load status of the IP network, and sending the IP packet belonging to the IP packet flow; wherein adjusting the forwarding path of the IP packet belonging to the IP packet flow according to the load status of the IP network comprises: using a CLOS-based dispatch function disp to calculate a forwarding path, p = disp (f, l, c, s, p0), wherein p indicates a forwarding path that needs to be calculated for forwarding an IP packet flow f; f indicates the IP packet flow; 1 indicates a load of each interconnection link inside the CLOS network; c indicates a cost of each interconnection link inside the CLOS network; s indicates a quality of service QOS, parameter of each interconnection link inside the CLOS network; and p0 indicates a current forwarding path of the IP packet flow f. receiving an IP packet flow; and adjusting a forwarding path of an IP packet belonging to the IP packet flow according to a load status of the IP network, and sending the IP packet belonging to the IP packet flow; wherein adjusting the forwarding path of the IP packet belonging to the IP packet flow according to the load status of the IP network comprises: using a CLOS-based dispatch function disp to calculate a forwarding path, p = disp (f, l, c, s, p0), wherein p indicates a forwarding path that needs to be calculated for forwarding an IP packet flow f; f indicates the IP packet flow; 1 indicates a load of each interconnection link inside the CLOS network; c indicates a cost of each interconnection link inside the CLOS network; s indicates a quality of service QOS, parameter of each interconnection link inside the CLOS network; and p0 indicates a current forwarding path of the IP packet flow f. using a CLOS-based dispatch function disp to calculate a forwarding path, p = disp (f, l, c, s, p0), wherein p indicates a forwarding path that needs to be calculated for forwarding an IP packet flow f; f indicates the IP packet flow; 1 indicates a load of each interconnection link inside the CLOS network; c indicates a cost of each interconnection link inside the CLOS network; s indicates a quality of service QOS, parameter of each interconnection link inside the CLOS network; and p0 indicates a current forwarding path of the IP packet flow f.
A printer having a linerless label operation mode and a linered label operation mode as operation modes, the printer comprising: a printing unit having a thermal head and a platen roller; a coupling portion (23, 24) configured to couple a cutter unit; characterized in that the printer further comprises a control unit configured to: detect an operation mode of the printer based on whether the cutter unit is a cutter unit configured to cut a linerless label or a cutter unit configured to cut a linered label when the cutter unit is coupled to the coupling portion (23, 24), and set the operation mode of the printer to the linerless label operation mode or the linered label operation mode based on the detecting result; wherein the coupling portion (23, 24) has a connecting terminal for the cutter unit, the connecting terminal having a mode detecting signal port for detecting the operation mode. a printing unit having a thermal head and a platen roller; a coupling portion (23, 24) configured to couple a cutter unit; characterized in that the printer further comprises a control unit configured to: detect an operation mode of the printer based on whether the cutter unit is a cutter unit configured to cut a linerless label or a cutter unit configured to cut a linered label when the cutter unit is coupled to the coupling portion (23, 24), and set the operation mode of the printer to the linerless label operation mode or the linered label operation mode based on the detecting result; wherein the coupling portion (23, 24) has a connecting terminal for the cutter unit, the connecting terminal having a mode detecting signal port for detecting the operation mode.
Insulation material precursor comprising a sheetlike core layer laminate with at least the following interconnected layers: - polyester nonwoven, - polyester film, - polyester nonwoven, wherein • the two outer sides of the core layer laminate are provided with a layer (12, 20) of resin, • the resin is at the B-stage and has a weight fraction of at least 5% of boron nitride, • the polyester film has a thickness in the range from 25 μm to 350 μm, and • the polyester nonwovens (14, 18) have a thickness in the range from 25 μm to 130 μm. - polyester nonwoven, - polyester film, - polyester nonwoven, • the two outer sides of the core layer laminate are provided with a layer (12, 20) of resin, • the resin is at the B-stage and has a weight fraction of at least 5% of boron nitride, • the polyester film has a thickness in the range from 25 μm to 350 μm, and • the polyester nonwovens (14, 18) have a thickness in the range from 25 μm to 130 μm.
A transgenic soybean plant cell comprising a genome comprising a polynucleotide having at least 95% identity with SEQ ID NO: 27, comprising a 5' genomic flanking sequence and a 5' end of an insert sequence having at least 95% identity with SEQ ID NO: 14, and a 3' genomic flanking sequence and a 3' end of the insert sequence having at least 95% identity with SEQ ID NO: 15, wherein the 5' and 3' genomic flanking sequences are of the native genome of said soybean plant cell, wherein the soybean plant cell is herbicide tolerant.
A liquid discharge head comprising: an individual liquid chamber having a nozzle through which a liquid is discharged in a liquid discharge direction; a piezoelectric element facing the individual liquid chamber; a first groove adjacent to the piezoelectric element in a nozzle array direction, the first groove extending in the liquid discharge direction; a dummy individual liquid chamber without any nozzle; a dummy piezoelectric element facing the dummy individual liquid chamber; and a second groove adjacent to the dummy piezoelectric element in the nozzle array direction, the second groove having a shorter length in the liquid discharge direction than the first groove, wherein the dummy individual liquid chamber, the dummy piezoelectric element, and the second groove include a plurality of dummy individual liquid chambers, a plurality of dummy piezoelectric elements, and a plurality of second grooves, respectively, wherein the plurality of dummy individual liquid chambers is disposed adjacent to the individual liquid chamber on a side close to an end of the liquid discharge head in the nozzle array direction, and wherein one of the second grooves closest to the end of the liquid discharge head has a shorter length in the liquid discharge direction than another one of the second grooves closest to the individual liquid chamber. an individual liquid chamber having a nozzle through which a liquid is discharged in a liquid discharge direction; a piezoelectric element facing the individual liquid chamber; a first groove adjacent to the piezoelectric element in a nozzle array direction, the first groove extending in the liquid discharge direction; a dummy individual liquid chamber without any nozzle; a dummy piezoelectric element facing the dummy individual liquid chamber; and a second groove adjacent to the dummy piezoelectric element in the nozzle array direction, the second groove having a shorter length in the liquid discharge direction than the first groove, wherein the dummy individual liquid chamber, the dummy piezoelectric element, and the second groove include a plurality of dummy individual liquid chambers, a plurality of dummy piezoelectric elements, and a plurality of second grooves, respectively, wherein the plurality of dummy individual liquid chambers is disposed adjacent to the individual liquid chamber on a side close to an end of the liquid discharge head in the nozzle array direction, and wherein one of the second grooves closest to the end of the liquid discharge head has a shorter length in the liquid discharge direction than another one of the second grooves closest to the individual liquid chamber.
An earth leakage circuit breaker comprising: an earth leakage detector which, when in use, is installed on an electric circuit between an alternating current power supply and a load, and detects earth leakage; a rectifier that switches between a full-wave rectification method and a half-wave rectification method, and is adapted to rectify AC power supplied from the AC power supply to generate direct current power; a switching part which, when in use, is installed on an electric circuit between the AC power supply and the rectifier, and switches between supply and interruption of the power from the AC power supply; and a controller adapted to be driven by the DC power generated by the rectifier, and to cause the switching part to interrupt the power from the AC power supply when the earth leakage is detected by the earth leakage detector, wherein the controller is driven by the DC power based on the half-wave rectification method by the rectifier and causes the rectifier to be operated according to the half-wave rectification method until the earth leakage is detected by the earth leakage detector, and the controller is driven by the DC power based on the full-wave rectification method by the rectifier and causes the rectifier to be operated according to the full-wave rectification method and causes the switching part to be operated to interrupt the power from the AC power supply by the DC power generated by the rectifier when the earth leakage is detected by the earth leakage detector. an earth leakage detector which, when in use, is installed on an electric circuit between an alternating current power supply and a load, and detects earth leakage; a rectifier that switches between a full-wave rectification method and a half-wave rectification method, and is adapted to rectify AC power supplied from the AC power supply to generate direct current power; a switching part which, when in use, is installed on an electric circuit between the AC power supply and the rectifier, and switches between supply and interruption of the power from the AC power supply; and a controller adapted to be driven by the DC power generated by the rectifier, and to cause the switching part to interrupt the power from the AC power supply when the earth leakage is detected by the earth leakage detector, wherein the controller is driven by the DC power based on the half-wave rectification method by the rectifier and causes the rectifier to be operated according to the half-wave rectification method until the earth leakage is detected by the earth leakage detector, and the controller is driven by the DC power based on the full-wave rectification method by the rectifier and causes the rectifier to be operated according to the full-wave rectification method and causes the switching part to be operated to interrupt the power from the AC power supply by the DC power generated by the rectifier when the earth leakage is detected by the earth leakage detector.
A phase calibration apparatus, comprising a first phase detector and a phase shift control device connected to the first phase detector; wherein the first phase detector is configured to obtain N first signals, compare the N first signals with a reference signal, so as to obtain a phase difference between the reference signal and each first signal in the N first signals, and output N phase differences to the phase shift control device, wherein N is an integer greater than or equal to 2, the N first signals are signals respectively phase-shifted by N phase shifters, and a carrier frequency of the reference signal is the same as a carrier frequency of the N first signals; and the phase shift control device is configured to adjust phase shift of the N phase shifters on a one-to-one basis according to the N phase differences; characterized in that the first phase detector is further configured to obtain M second signal and use the M second signal as the reference signal, the apparatus further comprises a second phase detector, a comparator, and a selector, wherein the comparator is connected to the second phase detector and the selector, and the selector is connected to the first phase detector; the second phase detector is configured to obtain M second signals, wherein M is an integer greater than or equal to 2, and all the second signals have different phases, separately compare the M second signals with a first signal in the N first signals, so as to obtain a phase difference between the first signal and each second signal in the M second signals, and output the phase difference to the comparator; the comparator is configured to determine a second signal used to obtain a phase difference whose absolute value is smallest in the M phase differences, and output a result of the determining to the selector; and the selector is configured to obtain the M second signals, use, according to the result of the determining, the second signal determined by the comparator as the reference signal, and output the second signal to the first phase detector.
An antenna device comprising an antenna and a radome (110, 120, 130, 140, 150, 210, 220, 230) that covers the antenna, characterised in that: the radome (110, 120, 130, 140, 150, 210, 220, 230) includes a first part (111, 121, 131, 141, 151, 211, 221, 231), a second part (112, 122, 132, 142, 152, 212, 222, 232) and a third part (113, 123, 133, 143, 153, 213, 223, 233) each with an inner and outer surface which are flush to each other; the first part has a beam transmission characteristic corresponding to a scanning angle of 0 degrees of a beam emitted by the antenna with an emission direction directed toward the first part; the second part has a beam transmission characteristic corresponding to a first scanning angle of a beam emitted by the antenna with an emission direction directed toward the second part; and the third part has a beam transmission characteristic corresponding to a second scanning angle of a beam emitted by the antenna with an emission direction directed toward the third part, wherein: the antenna is a planar antenna capable of changing the beam emission direction; and the second part is adjacent to one end of the first part, and the third part is adjacent to the other end of the first part, and, wherein: each of the first part, the second part, and the third part is composed of one or more layers; the first part and the second part differ in a number of layers, such that the first and second part differ in the beam transmission characteristic; and the first part and the third part differ in a number of layers, such that the first and third part differ in the beam transmission characteristic. the radome (110, 120, 130, 140, 150, 210, 220, 230) includes a first part (111, 121, 131, 141, 151, 211, 221, 231), a second part (112, 122, 132, 142, 152, 212, 222, 232) and a third part (113, 123, 133, 143, 153, 213, 223, 233) each with an inner and outer surface which are flush to each other; the first part has a beam transmission characteristic corresponding to a scanning angle of 0 degrees of a beam emitted by the antenna with an emission direction directed toward the first part; the second part has a beam transmission characteristic corresponding to a first scanning angle of a beam emitted by the antenna with an emission direction directed toward the second part; and the third part has a beam transmission characteristic corresponding to a second scanning angle of a beam emitted by the antenna with an emission direction directed toward the third part, the antenna is a planar antenna capable of changing the beam emission direction; and the second part is adjacent to one end of the first part, and the third part is adjacent to the other end of the first part, and, each of the first part, the second part, and the third part is composed of one or more layers; the first part and the second part differ in a number of layers, such that the first and second part differ in the beam transmission characteristic; and the first part and the third part differ in a number of layers, such that the first and third part differ in the beam transmission characteristic.
A device for monitoring an extracorporeal blood treatment apparatus with an extracorporeal blood circuit, which comprises an arterial blood line with an arterial patient connection and a venous blood line with a venous patient connection, and with a dialysing fluid system, wherein a centrifugal pump for conveying blood in the extracorporeal blood circuit is disposed in the arterial or venous blood line of the extracorporeal blood circuit, characterised in that the monitoring device comprises: means for measuring flow rate Q of the blood conveyed by the centrifugal pump in the extracorporeal blood circuit, and a control and computing unit, which is constituted such that, in the event of a change in the measured flow rate of more than a predetermined amount, it is concluded that there is an incorrect vascular access. means for measuring flow rate Q of the blood conveyed by the centrifugal pump in the extracorporeal blood circuit, and a control and computing unit, which is constituted such that, in the event of a change in the measured flow rate of more than a predetermined amount, it is concluded that there is an incorrect vascular access.
A rear wheel axle for a bicycle comprising a hollow wheel axle and an axle shaft inserted through it, which rear wheel axle is provided with torque support means for supporting on a drop out of a bicycle frame torque exerted on the wheel axle, characterized in that the torque support means are formed by a first part of an outside of the axle shaft and a part of an inside of the wheel axle, which parts jointly form a first form locked connection, as well as by a second part of the outside of the axle shaft, which together with a bounding wall of a through hole in the drop outs (101, 103) of the bicycle frame or of a further through hole present in an inserted piece which in the direction of rotation is fixed relative to the drop out forms a second form locked connection, where the first and second parts (7A, 9A) of the outside of the axle shaft are fixed relative to each other in the direction of rotation of the axle shaft.
A beam shaper for shaping a laser beam for a device for laser beam treatment, in particular laser beam cutting, comprising a first beam shaping section designed for shaping a central part of the laser beam such that the laser beam includes first wave fronts which are at least partially spherical, and being characterized by a second beam shaping section designed for shaping a peripheral part of the laser beam such that the laser beam includes second wave fronts which are at least partially parallel and at least partially incoherently superimpose the first wave fronts. being characterized by a second beam shaping section designed for shaping a peripheral part of the laser beam such that the laser beam includes second wave fronts which are at least partially parallel and at least partially incoherently superimpose the first wave fronts.
Aboard edge connector to which a board is inserted along an oblique direction relative to its fixed posture, wherein the connector comprises: a main body; and a plurality of contacts arranged in juxtaposition on the main body along a direction perpendicular to an insertion direction of a board; the contacts include contact portions projecting from the upper face of the main body, characterized in that the main body includes a convex portion formed as a projection from its upper face, the convex portion restricting insertion of the board to the main body at an angle exceeding a predetermined angle. a main body; and a plurality of contacts arranged in juxtaposition on the main body along a direction perpendicular to an insertion direction of a board; the contacts include contact portions projecting from the upper face of the main body, characterized in that the main body includes a convex portion formed as a projection from its upper face, the convex portion restricting insertion of the board to the main body at an angle exceeding a predetermined angle.
Bridge cap, comprising, for fastening to a bridge, a fastening unit having a fastening means and a guide device which is introduced into the bridge cap and comprises a cylindrical anchor sleeve, characterized in that the fastening unit is composed of separate individual parts which, in addition to the anchor sleeve, comprise a separate transition piece having a first cylindrical portion which is adapted to the diameter of the anchor sleeve and a second cylindrical portion facing away from said first portion, which second portion is directed toward an outer face of the bridge cap.
Connector (1, 101) for connecting cellular electrical elements of a battery unit, comprising a cover-like carrier element (2, 102) and a covering element, a plurality of contact elements (4, 104), each for electrically interconnecting two cellular electrical elements of the battery unit, being arranged in the carrier element (2, 102), a plurality of connector elements (34, 134) being provided in the edge region of the carrier element (2, 102), and a plurality of film conductors (10, 110) for contacting the contact elements (4, 104) with the connector elements (34, 134) being arranged in the carrier element, the carrier element (2, 102) having weld openings (7, 107) for welding the contact elements to respective contact locations of a cellular electrical element, wherein at least one contact element (4, 104) has a tongue (16, 116) which spatially overlaps with the plurality of film conductors, characterized in the covering element (40, 140) being constructed in such a manner that the weld openings (7, 107) of the carrier element (2, 102) can be covered therewith, and in that the tongue (16, 116) extends between two adjacent weld openings (7, 107) of the carrier element (2, 102).