mhurhangee/ep-ind-claims huggingface dataset:
A system to implement a scheduling algorithm in a communication network using time division multiple access TDMA, the system comprising: a plurality of devices, each device transmitting a packet of data in the communication network; a memory device configured to store the scheduling algorithm; and a processor configured to execute the scheduling algorithm to form a deterministic packet scheduling scheme, characterised in that the deterministic packet scheduling scheme is based on a base unit BU representing a minimum among maximum packet intervals MPI corresponding to the plurality of devices in the communication network to ensure that the resulting packets round satisfies the most restrictive bandwidth requirement among the devices, wherein MPI is the maximum allowable distance between two adjacent packets of a given device among the plurality of devices, wherein the processor is further configured to determine a packet interval based on the base unit PIB for each of the plurality of devices, and wherein the processor determines the PIB for each of the plurality of devices, indicated by m, using a floor function as: PI B m = ⌊ log 2 MP I m BU ⌋. a plurality of devices, each device transmitting a packet of data in the communication network; a memory device configured to store the scheduling algorithm; and a processor configured to execute the scheduling algorithm to form a deterministic packet scheduling scheme, characterised in that the deterministic packet scheduling scheme is based on a base unit BU representing a minimum among maximum packet intervals MPI corresponding to the plurality of devices in the communication network to ensure that the resulting packets round satisfies the most restrictive bandwidth requirement among the devices, wherein MPI is the maximum allowable distance between two adjacent packets of a given device among the plurality of devices, wherein the processor is further configured to determine a packet interval based on the base unit PIB for each of the plurality of devices, and wherein the processor determines the PIB for each of the plurality of devices, indicated by m, using a floor function as: PI B m = ⌊ log 2 MP I m BU ⌋.
A compound of Formula 1, or a salt thereof, wherein: a is an integer from 1 to 10; b is an integer from 0 to 7; Z is a terminal group of Formula 2 where* denotes the point of attachment to Y; r is an integer from 1 to 12, more preferably from 2 to 6; R 1 is NH 2 or OR 3, where R 3 is selected from H, alkyl, aryl and aralkyl; R 2 is H or Pr, where Pr is FMoc; each Y is independently a bivalent group of Formula 2' where* denotes the point of attachment; ** indicates a bond to a group Z as defined above or another group Y; r is an integer from 1 to 12, more preferably from 2 to 6; and R 1 is NH 2 or OR 3, where R 3 is selected from H, alkyl, aryl and aralkyl. a is an integer from 1 to 10; b is an integer from 0 to 7; Z is a terminal group of Formula 2 where* denotes the point of attachment to Y; r is an integer from 1 to 12, more preferably from 2 to 6; R 1 is NH 2 or OR 3, where R 3 is selected from H, alkyl, aryl and aralkyl; R 2 is H or Pr, where Pr is FMoc; where* denotes the point of attachment to Y; r is an integer from 1 to 12, more preferably from 2 to 6; R 1 is NH 2 or OR 3, where R 3 is selected from H, alkyl, aryl and aralkyl; R 2 is H or Pr, where Pr is FMoc; each Y is independently a bivalent group of Formula 2' where* denotes the point of attachment; ** indicates a bond to a group Z as defined above or another group Y; r is an integer from 1 to 12, more preferably from 2 to 6; and R 1 is NH 2 or OR 3, where R 3 is selected from H, alkyl, aryl and aralkyl. where* denotes the point of attachment; ** indicates a bond to a group Z as defined above or another group Y; r is an integer from 1 to 12, more preferably from 2 to 6; and R 1 is NH 2 or OR 3, where R 3 is selected from H, alkyl, aryl and aralkyl.
A process for the preparation of oligomeric poly alpha-olefins which comprises oligomerizing in the presence of a Lewis acid oligomerization catalyst a low molecular weight PAO oligomer produced by the metallocene-catalyzed oligomerization of an alpha-olefin feed, wherein the Lewis acid oligomerization catalyst comprises aluminum trichloride; and wherein the low molecular weight PAO oligomer is co-oligomerized with an alpha-olefin comonomer in the presence of the Lewis acid catalyst.
A toilet apparatus comprising: a toilet including a bowl (101, 104), a recess formed on an upper face to communicate with the bowl, and a communicating portion that links the bowl and the recess; a casing provided above the toilet comprising an extended portion provided to extend toward a front of the bowl; a toilet seat pivotally supported to open and close with respect to the casing; and a cleansing nozzle, at least partially disposed on the recess, that passes through the communicating portion and extends into and retracts from the bowl; characterized in that the toilet apparatus further comprises a shutter, pivotally supported to rotationally move with respect to the casing, that opens the communicating portion when the cleansing nozzle extends and closes the communicating portion when the cleansing nozzle retracts; one of the casing and the shutter comprises a bearing portion to hold a shaft; the other one of the casing and the shutter comprises a pivotal support portion to support the shaft held by the bearing portion; and the bearing portion and the pivotal support portion are disposed at a position which is below the extended portion and above the communicating portion, the position being at a position retracted from the front face of the extended portion, and are covered from above by the extended portion. a toilet including a bowl (101, 104), a recess formed on an upper face to communicate with the bowl, and a communicating portion that links the bowl and the recess; a casing provided above the toilet comprising an extended portion provided to extend toward a front of the bowl; a toilet seat pivotally supported to open and close with respect to the casing; and a cleansing nozzle, at least partially disposed on the recess, that passes through the communicating portion and extends into and retracts from the bowl; characterized in that the toilet apparatus further comprises a shutter, pivotally supported to rotationally move with respect to the casing, that opens the communicating portion when the cleansing nozzle extends and closes the communicating portion when the cleansing nozzle retracts; one of the casing and the shutter comprises a bearing portion to hold a shaft; the other one of the casing and the shutter comprises a pivotal support portion to support the shaft held by the bearing portion; and the bearing portion and the pivotal support portion are disposed at a position which is below the extended portion and above the communicating portion, the position being at a position retracted from the front face of the extended portion, and are covered from above by the extended portion.
Method for producing a stack of electrical steel laminations comprising the steps of: - Providing a strip of electrical steel, preferably wherein the strip is provided in the form of a coiled strip, - Producing cut-outs along the length of one or both sides of the strip in a continuous process, e.g. by punching or stamping means, to produce a continuous lamination having the width of the stack; - Separating a plurality of individual laminations from the continuous lamination; - Stacking the plurality of individual laminations on a stacking position on a stacking device until the required number of individual laminations for the stack is reached; - removing the stack from the stacking device for post-processing, thereby freeing the stacking device for producing a next stack of electrical steel laminations; - Postprocessing the stack by • optionally aligning, squaring and/or making perpendicular the stack, if necessary; • bonding, and optionally aligning, the laminations in the stack by welding, capillary action adhesive or activation or the optionally precoated adhesive; • annealing the stack for stress relief and/or curing the adhesive; • optionally cutting the stack to the required length, wherein the postprocessed stack is a stator for a linear motor. - Providing a strip of electrical steel, preferably wherein the strip is provided in the form of a coiled strip, - Producing cut-outs along the length of one or both sides of the strip in a continuous process, e.g. by punching or stamping means, to produce a continuous lamination having the width of the stack; - Separating a plurality of individual laminations from the continuous lamination; - Stacking the plurality of individual laminations on a stacking position on a stacking device until the required number of individual laminations for the stack is reached; - removing the stack from the stacking device for post-processing, thereby freeing the stacking device for producing a next stack of electrical steel laminations; - Postprocessing the stack by • optionally aligning, squaring and/or making perpendicular the stack, if necessary; • bonding, and optionally aligning, the laminations in the stack by welding, capillary action adhesive or activation or the optionally precoated adhesive; • annealing the stack for stress relief and/or curing the adhesive; • optionally cutting the stack to the required length, • optionally aligning, squaring and/or making perpendicular the stack, if necessary; • bonding, and optionally aligning, the laminations in the stack by welding, capillary action adhesive or activation or the optionally precoated adhesive; • annealing the stack for stress relief and/or curing the adhesive; • optionally cutting the stack to the required length,
Dry brake module comprising: - a cooling body, - a heat sink (3, 39, 57, 73, 85), which is attached to the cooling body for the purpose of discharging heat; - a friction disc (5, 35, 37, 75, 77) which is connected to a rotational member which can rotate about the same axis as the friction disc (5, 35, 37, 75, 77), which friction disc on at least one side is provided with a lining and is faced with this side towards the heat sink (3, 39, 57, 73, 85); and - an actuation system with which an axial pressing force on the friction disc (5, 35, 37, 75, 77) can be exercised, in which the friction disc (5, 35, 37, 75, 77) is located axially between the heat sink (3, 39, 57, 73, 85) and the actuation system, characterized in that the cooling body is a transmission housing and no further heat sink, which during operation has a rotation speed difference with the friction disc (5, 35, 37, 75, 77), is present between the friction disc (5, 35, 37, 75, 77) and the actuation system. - a cooling body, - a heat sink (3, 39, 57, 73, 85), which is attached to the cooling body for the purpose of discharging heat; - a friction disc (5, 35, 37, 75, 77) which is connected to a rotational member which can rotate about the same axis as the friction disc (5, 35, 37, 75, 77), which friction disc on at least one side is provided with a lining and is faced with this side towards the heat sink (3, 39, 57, 73, 85); and - an actuation system with which an axial pressing force on the friction disc (5, 35, 37, 75, 77) can be exercised, in which the friction disc (5, 35, 37, 75, 77) is located axially between the heat sink (3, 39, 57, 73, 85) and the actuation system,
A pressure overshooting prevention system for an electronic hydraulic pump in a hydraulic system, comprising: a) a flow rate command calculating unit which adds (+) a flow rate command corresponding to required pressure, subtracts (-) a discharge flow rate discharged from an electronic hydraulic pump, and calculates a displacement flow rate; b) a flow rate control unit which generates a first pressure command corresponding to the displacement flow rate; c) a stall determining unit which determines a stall based on a first rate of change of the flow rate command, and a second rate of change of the discharge flow rate; d) a flow rate pressure generating unit which generates a working fluid pressure value corresponding to the discharge flow rate; e) a gradient limiting unit which generates a limit pressure command so as to limit an increasing gradient of the working fluid pressure value; f) a selecting unit which sets the limit pressure command to a second pressure command when a stall is determined by the stall determining unit; and g) a minimum pressure setting unit which selects the smaller value of the first pressure command and the second pressure command as a final pressure command so as to control an electronic proportional control valve. a) a flow rate command calculating unit which adds (+) a flow rate command corresponding to required pressure, subtracts (-) a discharge flow rate discharged from an electronic hydraulic pump, and calculates a displacement flow rate; b) a flow rate control unit which generates a first pressure command corresponding to the displacement flow rate; c) a stall determining unit which determines a stall based on a first rate of change of the flow rate command, and a second rate of change of the discharge flow rate; d) a flow rate pressure generating unit which generates a working fluid pressure value corresponding to the discharge flow rate; e) a gradient limiting unit which generates a limit pressure command so as to limit an increasing gradient of the working fluid pressure value; f) a selecting unit which sets the limit pressure command to a second pressure command when a stall is determined by the stall determining unit; and g) a minimum pressure setting unit which selects the smaller value of the first pressure command and the second pressure command as a final pressure command so as to control an electronic proportional control valve.
A microwave quantum circuit system (102, 200, 340, 400) comprising: a dielectric substrate (712, 818A, 81AB); a quantum circuit device on the dielectric substrate (712, 818A, 81AB), the quantum circuit device comprising a Josephson junction; and an impedance matching circuit device (204, 318, 700, 812) on the dielectric substrate (712, 818A, 81AB) and coupled to the quantum circuit device, the impedance matching circuit device (204, 318, 700, 812) comprising a ladder network of inductors and shunt capacitors; wherein the quantum circuit device comprises a parametric amplifier (316, 412) configured to: provide a gain of at least four dB to microwave signals over a bandwidth greater than five hundred MHz, and provide gain to microwave signals having a nominal frequency between four and ten GHz. a dielectric substrate (712, 818A, 81AB); a quantum circuit device on the dielectric substrate (712, 818A, 81AB), the quantum circuit device comprising a Josephson junction; and an impedance matching circuit device (204, 318, 700, 812) on the dielectric substrate (712, 818A, 81AB) and coupled to the quantum circuit device, the impedance matching circuit device (204, 318, 700, 812) comprising a ladder network of inductors and shunt capacitors; wherein the quantum circuit device comprises a parametric amplifier (316, 412) configured to: provide a gain of at least four dB to microwave signals over a bandwidth greater than five hundred MHz, and provide gain to microwave signals having a nominal frequency between four and ten GHz. provide a gain of at least four dB to microwave signals over a bandwidth greater than five hundred MHz, and provide gain to microwave signals having a nominal frequency between four and ten GHz.
A method of providing an object-based transport layer in network communications, comprising: receiving one or more objects from an application (106, 402) for communicating to a remote network node; receiving metadata for the one or more objects from the application (106, 402); selecting, by the object-based transport layer, a session (308, 310, 312) for communicating the one or more objects over one or more channels to the remote network node; and providing, from the object-based transport layer, the one or more objects to a network protocol layer for transmitting over at least one network interface related to a channel of the session (308, 310, 312) based at least in part on a priority of the one or more objects indicated in the metadata; determining from the metadata, by the object-based transport layer, a transmission deadline related to one or more different objects in the session (308, 310, 312); and cancelling, by the object-based transport layer, transmission of the one or more different objects based at least in part on passing of the transmission deadline. receiving one or more objects from an application (106, 402) for communicating to a remote network node; receiving metadata for the one or more objects from the application (106, 402); selecting, by the object-based transport layer, a session (308, 310, 312) for communicating the one or more objects over one or more channels to the remote network node; and providing, from the object-based transport layer, the one or more objects to a network protocol layer for transmitting over at least one network interface related to a channel of the session (308, 310, 312) based at least in part on a priority of the one or more objects indicated in the metadata; determining from the metadata, by the object-based transport layer, a transmission deadline related to one or more different objects in the session (308, 310, 312); and cancelling, by the object-based transport layer, transmission of the one or more different objects based at least in part on passing of the transmission deadline.
A method for performing link recovery by a first visible light communication, VLC, device, comprising: during transmission of data to a second VLC device, detecting a trigger condition indicating a failure of a VLC link for a communication between the first VLC device and the second VLC device; comparing a battery life of the first VLC device with a battery life of the second VLC device, wherein the battery life is a length of a time that a corresponding device (110, 120) can run on remaining power of the corresponding device (110, 120); if the battery life of the first VLC device is longer than the battery life of the second VLC device, stopping the transmission of the data to the second VLC device; transmitting (430A, 430B) a fast link recovery, FLR, signal to the second VLC device; receiving a fast link recovery response, FLR RSP, signal from the second VLC device; and in response to reception of the FLR RSP signal, resuming the transmission of the data to the second VLC device. during transmission of data to a second VLC device, detecting a trigger condition indicating a failure of a VLC link for a communication between the first VLC device and the second VLC device; comparing a battery life of the first VLC device with a battery life of the second VLC device, wherein the battery life is a length of a time that a corresponding device (110, 120) can run on remaining power of the corresponding device (110, 120); if the battery life of the first VLC device is longer than the battery life of the second VLC device, stopping the transmission of the data to the second VLC device; transmitting (430A, 430B) a fast link recovery, FLR, signal to the second VLC device; receiving a fast link recovery response, FLR RSP, signal from the second VLC device; and in response to reception of the FLR RSP signal, resuming the transmission of the data to the second VLC device.
A workpiece having a PVD layer system, wherein the PVD layer system comprises at least one mixed crystal layer of a multi-oxide of the following composition: (Me1 1-x Me2 x) z O 3 wherein Me1 comprises Al and Me2 comprises at least one of the elements Cr, Fe, Li, Mg, Mn, Nb, Ti, Sb, or V, wherein 0.2 ≤ x ≤ 0.98, characterized in that the crystal lattice of the mixed crystal layer has a corundum structure, which is characterized, in a spectrum of the mixed crystal layer measured by means of x-ray diffractometry, by at least four, preferably five lines to be associated with the corundum structure, and the layer system is produced by means of arc methods.
A medical implant comprising a biocomposite, said biocomposite comprising a bioabsorbable polymer and a plurality of reinforcement mineral fibers, wherein a weight percentage of a mineral composition within the biocomposite medical implant is in the range of 30-60%, wherein the mineral content is provided by reinforcing mineral fiber made from the mineral composition, wherein an average diameter of said mineral fibers is in a range of 1-100 microns, said medical implant being threaded with a plurality of threads; wherein said mineral fibers comprise a plurality of helical fibers and a plurality of longitudinal fibers; wherein a weight to weight percent ratio of said helical to said longitudinal fibers is from 80:20 to 20:80.
An array substrate, comprising: a plurality of pixel structures, each of the pixel structures comprises at least one pixel region, wherein a signal wiring is provided at a side of the pixel region, and a pixel electrode and a common electrode are provided in the pixel region, a shield electrode being in a same layer as the pixel electrode is provided at a side of the pixel electrode proximal to the signal wiring, and the shield electrode is electrically coupled to a common electrode line, wherein the signal wiring comprises a gate line and the common electrode line, which are respectively located at opposite sides of the pixel region, the common electrode is electrically coupled to the common electrode line; and the shield electrode comprises a first shield sub-electrode located in the pixel region and between the pixel electrode and the common electrode line, and the first shield sub-electrode is coupled to the common electrode line through a via hole; characterized in that the shield electrode further comprises either (i) a second shield sub-electrode or (ii) a third shield sub-electrode, the second shield sub-electrode is located in the pixel region and between the pixel electrode and the gate line, and an orthographic projection of the third shield sub-electrode on a plane where the gate line is located is completely in an area where the gate line is located; and the second shield sub-electrode and the third shield sub-electrode are respectively electrically connected to the common electrode. a signal wiring is provided at a side of the pixel region, and a pixel electrode and a common electrode are provided in the pixel region, a shield electrode being in a same layer as the pixel electrode is provided at a side of the pixel electrode proximal to the signal wiring, and the shield electrode is electrically coupled to a common electrode line, wherein the signal wiring comprises a gate line and the common electrode line, which are respectively located at opposite sides of the pixel region, the common electrode is electrically coupled to the common electrode line; and the shield electrode comprises a first shield sub-electrode located in the pixel region and between the pixel electrode and the common electrode line, and the first shield sub-electrode is coupled to the common electrode line through a via hole; characterized in that the shield electrode further comprises either (i) a second shield sub-electrode or (ii) a third shield sub-electrode, the second shield sub-electrode is located in the pixel region and between the pixel electrode and the gate line, and an orthographic projection of the third shield sub-electrode on a plane where the gate line is located is completely in an area where the gate line is located; and the second shield sub-electrode and the third shield sub-electrode are respectively electrically connected to the common electrode.