mhurhangee/ep-ind-claims huggingface dataset:
A method for improving packet throughput comprising: receiving, at a sending computer, selective acknowledgements from a recipient computer that is connected to said sending computer by a link that is shared with at least one additional computer; said selective acknowledgements responsive to packets sent from said sending computer to said recipient computer according to a delivery strategy including a data transmission rate; determining from said selective acknowledgements whether any of said packets were lost; if said selective acknowledgements indicate none of said packets were lost, maintaining said delivery strategy; if said selective acknowledgements indicate packets were lost, determining if any of said lost packets were clustered by determining whether at least a predefined portion of said packets were lost within a predefined time period; if said lost packets were clustered, adjusting said delivery strategy by reducing said data transmission rate by a first factor to accommodate a first type of packet loss due to congestion on said link; if said lost packets were not clustered, adjusting said delivery strategy by reducing said data transmission rate by a second factor to accommodate a second type of packet loss due to transmission errors; said second factor being smaller than said first factor. receiving, at a sending computer, selective acknowledgements from a recipient computer that is connected to said sending computer by a link that is shared with at least one additional computer; said selective acknowledgements responsive to packets sent from said sending computer to said recipient computer according to a delivery strategy including a data transmission rate; determining from said selective acknowledgements whether any of said packets were lost; if said selective acknowledgements indicate none of said packets were lost, maintaining said delivery strategy; if said selective acknowledgements indicate packets were lost, determining if any of said lost packets were clustered by determining whether at least a predefined portion of said packets were lost within a predefined time period; if said lost packets were clustered, adjusting said delivery strategy by reducing said data transmission rate by a first factor to accommodate a first type of packet loss due to congestion on said link; if said lost packets were not clustered, adjusting said delivery strategy by reducing said data transmission rate by a second factor to accommodate a second type of packet loss due to transmission errors; said second factor being smaller than said first factor.
A semiconductor light emitting apparatus comprising: a substrate; a plurality of semiconductor light emitting devices on the substrate, each having an upper surface and side surfaces, the light emitting devices being spaced from each other with a gap between side surfaces of adjacent devices; and a wavelength conversion layer which contains a wavelength conversion material for wavelength conversion of at least part of light emitted by the semiconductor light emitting devices, the wavelength conversion layer being formed on the upper surfaces of all of the semiconductor light emitting devices and bridging over gaps between the semiconductor light emitting devices, wherein the wavelength conversion layer does not fill the gaps down to the substrate, characterized in that the semiconductor light emitting device comprises an opaque device substrate and a semiconductor stack section formed on the opaque device substrate and having side surfaces, the side surfaces of the semiconductor stack section being covered with the wavelength conversion layer. a substrate; a plurality of semiconductor light emitting devices on the substrate, each having an upper surface and side surfaces, the light emitting devices being spaced from each other with a gap between side surfaces of adjacent devices; and a wavelength conversion layer which contains a wavelength conversion material for wavelength conversion of at least part of light emitted by the semiconductor light emitting devices, the wavelength conversion layer being formed on the upper surfaces of all of the semiconductor light emitting devices and bridging over gaps between the semiconductor light emitting devices, wherein the wavelength conversion layer does not fill the gaps down to the substrate, characterized in that the semiconductor light emitting device comprises an opaque device substrate and a semiconductor stack section formed on the opaque device substrate and having side surfaces, the side surfaces of the semiconductor stack section being covered with the wavelength conversion layer.
A method performed by a computing device comprising a central processing unit, CPU, comprising physical processors, PPs,, the method comprising: executing a hypervisor comprising a first kernel, and executing an operating system comprising a second kernel, wherein the operating system and the second kernel execute in a scheduling virtual machine, VM, comprising a corresponding scheduling virtual processor, VP; managing by the first kernel, scheduled VMs comprising respective scheduled virtual processors the managing comprising maintaining physical processor states of the respective scheduled VPs and swapping the physical processor states in and out of the PPs, the physical processor states being stored in the hypervisor, wherein the scheduled VPs do not include the scheduling VP; and scheduling the scheduled VPs to execute on the PPs, wherein the scheduling is performed by the scheduling VP executing the second kernel in the scheduling VM, wherein when the scheduling by the second kernel determines to execute a given scheduled VP, the second kernel identifies the given scheduled VP to the hypervisor and based thereon the first kernel performs a processor context switch on a PP for the given scheduled VP, the processor context switch performed using the physical processor state corresponding to the identified given scheduled VP. executing a hypervisor comprising a first kernel, and executing an operating system comprising a second kernel, wherein the operating system and the second kernel execute in a scheduling virtual machine, VM, comprising a corresponding scheduling virtual processor, VP; managing by the first kernel, scheduled VMs comprising respective scheduled virtual processors the managing comprising maintaining physical processor states of the respective scheduled VPs and swapping the physical processor states in and out of the PPs, the physical processor states being stored in the hypervisor, wherein the scheduled VPs do not include the scheduling VP; and scheduling the scheduled VPs to execute on the PPs, wherein the scheduling is performed by the scheduling VP executing the second kernel in the scheduling VM, wherein when the scheduling by the second kernel determines to execute a given scheduled VP, the second kernel identifies the given scheduled VP to the hypervisor and based thereon the first kernel performs a processor context switch on a PP for the given scheduled VP, the processor context switch performed using the physical processor state corresponding to the identified given scheduled VP.
An on-vehicle control device configured to control a traveling speed of a vehicle including the on-vehicle control device, the on-vehicle control device comprising: an acquisition unit configured to acquire a present light color of a traffic light unit installed at an intersection (Ji), from a communication device outside the vehicle or a sensor mounted on the vehicle; a calculation unit configured to calculate an avoidance position and an avoidance speed with respect to a dilemma zone at a time when yellow light starts, by using a yellow interval of the traffic light unit, a deceleration of the vehicle, and a system delay time of the vehicle; and a control unit configured to execute a first deceleration process of reducing the traveling speed of the vehicle at the avoidance position to a speed equal to or lower than the avoidance speed, in a case where a present position of the vehicle is on an upstream side relative to the avoidance position such that a distance from the intersection to the present position of the vehicle is larger than a distance from the intersection to the avoidance position and the present light color is green. an acquisition unit configured to acquire a present light color of a traffic light unit installed at an intersection (Ji), from a communication device outside the vehicle or a sensor mounted on the vehicle; a calculation unit configured to calculate an avoidance position and an avoidance speed with respect to a dilemma zone at a time when yellow light starts, by using a yellow interval of the traffic light unit, a deceleration of the vehicle, and a system delay time of the vehicle; and a control unit configured to execute a first deceleration process of reducing the traveling speed of the vehicle at the avoidance position to a speed equal to or lower than the avoidance speed, in a case where a present position of the vehicle is on an upstream side relative to the avoidance position such that a distance from the intersection to the present position of the vehicle is larger than a distance from the intersection to the avoidance position and the present light color is green.
A eukaryotic serum-free and protein-free cell culture medium which supports the growth of mammalian Chinese Hamster Ovary cells in suspension culture and/or the expression of recombinant protein in cultured CHO cells, wherein said culture medium comprises an Fe 2+ and/or Fe 3+ chelate and a Zn 2+ salt, and wherein said medium further comprises a polysulfonated compound or a polysulfated compound in an amount sufficient to prevent cell clumping and/or increase the level of recombinant protein expression, wherein the concentration of the Zn 2+ is 0.00007 to 0.00073 g/L.
A motorcycle tire comprising: a tread portion having a first tread edge and a second tread edge and provided with first main oblique grooves and second main oblique grooves, wherein the first main oblique grooves extend between the first tread edge and the second tread edge, while inclining with respect to the tire circumferential direction to one direction, the second main oblique grooves extend between the first tread edge and the second tread edge, while inclining with respect to the tire circumferential direction to one direction opposite to the first main oblique grooves, the first main oblique grooves and the second main oblique grooves are alternately arranged in the tire circumferential direction, and the first main oblique grooves are connected to the second main oblique grooves, characterized in that the tread portion comprises a plurality of substantially triangular first regions each defined as being surrounded by one of the first main oblique grooves, one of the second main oblique grooves, and the first tread edge (Te 1), and each of the first regions is divided by sub grooves into blocks which include a largest block whose ground contacting surface has a maximum area A1, and a smallest block whose ground contacting surface has a minimum area A2 which is in a range from 40% to 80% of the maximum area A1. a tread portion having a first tread edge and a second tread edge and provided with first main oblique grooves and second main oblique grooves, the first main oblique grooves extend between the first tread edge and the second tread edge, while inclining with respect to the tire circumferential direction to one direction, the second main oblique grooves extend between the first tread edge and the second tread edge, while inclining with respect to the tire circumferential direction to one direction opposite to the first main oblique grooves, the first main oblique grooves and the second main oblique grooves are alternately arranged in the tire circumferential direction, and the first main oblique grooves are connected to the second main oblique grooves, characterized in that the tread portion comprises a plurality of substantially triangular first regions each defined as being surrounded by one of the first main oblique grooves, one of the second main oblique grooves, and the first tread edge (Te 1), and each of the first regions is divided by sub grooves into blocks which include a largest block whose ground contacting surface has a maximum area A1, and a smallest block whose ground contacting surface has a minimum area A2 which is in a range from 40% to 80% of the maximum area A1.
A heat exchanger for an air-conditioning system in a motor vehicle with a heat exchanger network having heat exchanger tubes, in particular flat tubes, and at least one collecting tank, wherein the collecting tank comprises at least one inlet-side and one outlet-side collecting tube being in flow communication with the heat exchanger tubes, wherein the outlet-side collecting tube has a cross-sectional area which is smaller than a cross-sectional area of the inlet-side collecting tube, characterised in that the cross-sectional area of the inlet-side collecting tube is larger than a cross-sectional area of the deflection-side collecting tube and the cross-sectional area of the deflection-side collecting tube is smaller than the cross-sectional area of the outlet-side collecting tube.
An apparatus comprising: an interface comprising: a data link layer to interface with a physical layer and a transaction layer, wherein the data link layer is to: generate flits comprising a cyclic redundancy check field, at least one of the flits is to further comprise a plurality of slots, messages are to be carried in the plurality of slots, one of the plurality of slots is to carry a credit return, another one of the plurality of slots is to carry payload data, and unused slots in the plurality of slots are to be set to an all zero state; and the transaction layer to handle packet formation, wherein the transaction layer is to interface with the data link layer, and packets comprise flits generated by the data link layer. a data link layer to interface with a physical layer and a transaction layer, wherein the data link layer is to: generate flits comprising a cyclic redundancy check field, at least one of the flits is to further comprise a plurality of slots, messages are to be carried in the plurality of slots, one of the plurality of slots is to carry a credit return, another one of the plurality of slots is to carry payload data, and unused slots in the plurality of slots are to be set to an all zero state; and the transaction layer to handle packet formation, wherein the transaction layer is to interface with the data link layer, and packets comprise flits generated by the data link layer.
A coated film comprising: base film a coating on at least one surface of said base film, said coating comprising: (a) vermiculite, (b) polymer capable of forming a film, (c) cross-linking agent, (d) chemical stabilizing agent comprising at least one of -- materials that contain cationic functionality comprising at least one of lithium, alkyl C 2 -C 6 ammonium, allyl ammonium, heterocylclic ammonium, morpholonium, and amino C 3 -C 6 alkyl carboxylic acids; -- lithium cations in combination with anions comprising at least one of carboxylic, phosphoric, phosphonic, sulfonic and fatty acids, lithium chelating agents, and lithium salts; and -- ammonia, C 3 -C 6 amine, heterocyclic amines, lithium hydroxide, morpholine, and morpholine oleate; said coating being between 0.10μ and 0.70μ thick and said coated film having an oxygen transmission rate of less than 5.0 cc/100 in 2 per 24 hours at 1 atmosphere pressure and 23°C. base film a coating on at least one surface of said base film, said coating comprising: (a) vermiculite, (b) polymer capable of forming a film, (c) cross-linking agent, (d) chemical stabilizing agent comprising at least one of -- materials that contain cationic functionality comprising at least one of lithium, alkyl C 2 -C 6 ammonium, allyl ammonium, heterocylclic ammonium, morpholonium, and amino C 3 -C 6 alkyl carboxylic acids; -- lithium cations in combination with anions comprising at least one of carboxylic, phosphoric, phosphonic, sulfonic and fatty acids, lithium chelating agents, and lithium salts; and -- ammonia, C 3 -C 6 amine, heterocyclic amines, lithium hydroxide, morpholine, and morpholine oleate; (a) vermiculite, (b) polymer capable of forming a film, (c) cross-linking agent, (d) chemical stabilizing agent comprising at least one of -- materials that contain cationic functionality comprising at least one of lithium, alkyl C 2 -C 6 ammonium, allyl ammonium, heterocylclic ammonium, morpholonium, and amino C 3 -C 6 alkyl carboxylic acids; -- lithium cations in combination with anions comprising at least one of carboxylic, phosphoric, phosphonic, sulfonic and fatty acids, lithium chelating agents, and lithium salts; and -- ammonia, C 3 -C 6 amine, heterocyclic amines, lithium hydroxide, morpholine, and morpholine oleate; -- materials that contain cationic functionality comprising at least one of lithium, alkyl C 2 -C 6 ammonium, allyl ammonium, heterocylclic ammonium, morpholonium, and amino C 3 -C 6 alkyl carboxylic acids; -- lithium cations in combination with anions comprising at least one of carboxylic, phosphoric, phosphonic, sulfonic and fatty acids, lithium chelating agents, and lithium salts; and -- ammonia, C 3 -C 6 amine, heterocyclic amines, lithium hydroxide, morpholine, and morpholine oleate; said coating being between 0.10μ and 0.70μ thick and said coated film having an oxygen transmission rate of less than 5.0 cc/100 in 2 per 24 hours at 1 atmosphere pressure and 23°C.
A dental wedge to insert into the interproximal space between a first tooth being restored and a second, adjacent tooth, the dental wedge comprising: a first sidewall comprising an internal portion and configured to engage the first tooth; a second sidewall comprising an internal portion and configured to engage the second tooth; a bridge disposed between and connecting the first sidewall and second sidewall to form an inverted V-shaped cross section throughout the internal portions (40a, 40b) of the first sidewall and second sidewall; the first sidewall, the second sidewall, and the bridge are comprised of a nickel-titanium alloy as a shape memory material enabling the first sidewall and second sidewall to transform from a first, resting state wherein the dental wedge is readily deformable to a second, operational state wherein the dental wedge returns to the inverted V-shaped cross section throughout the length of the internal portions (40a, 40b) of the first and second sidewalls (22, 24) and exerts an expansion force on the first tooth being restored and the second, adjacent tooth. a first sidewall comprising an internal portion and configured to engage the first tooth; a second sidewall comprising an internal portion and configured to engage the second tooth; a bridge disposed between and connecting the first sidewall and second sidewall to form an inverted V-shaped cross section throughout the internal portions (40a, 40b) of the first sidewall and second sidewall; the first sidewall, the second sidewall, and the bridge are comprised of a nickel-titanium alloy as a shape memory material enabling the first sidewall and second sidewall to transform from a first, resting state wherein the dental wedge is readily deformable to a second, operational state wherein the dental wedge returns to the inverted V-shaped cross section throughout the length of the internal portions (40a, 40b) of the first and second sidewalls (22, 24) and exerts an expansion force on the first tooth being restored and the second, adjacent tooth.
Cutting machine for cutting off slices of, in particular strand-shaped, product to be cut, having a machine housing which has a drive motor and a cutting knife rotatably driven by this in a cutting plane, and a carriage that can be moved linearly in parallel to the cutting plane having a supporting plate for supporting the product to be cut and a carriage foot connecting the supporting plate to the machine housing, and having a carriage pivot bearing which has a pivot axis running in parallel to the cutting plane in order to pivot the supporting plate between a cutting position that is aligned substantially orthogonally to the cutting plane and a cleaning position, wherein a locking device releasably locks the carriage pivot bearing in the cutting position, characterised in that the locking device has an electrically or electromagnetically operable actuator for releasing the lock.
A method of providing data management services, the method comprising: receiving, by a device located in a path between a switch port (P-5) of a switch and a target port (T-1) of a storage system, from the target port (T-1), a request to register, wherein the request includes a target world wide port name of the target port (T-1); determining, by the device, the target world wide port name of the target port, based on the request; registering, in a first registration procedure, a first port of the device with the switch based on the target world wide port name; receiving, by the device, in a second registration procedure, from an initiator port of a server (135-A) that is zoned to the target port (T-1), registration information that identifies an initiator world wide port name of the initiator port (I-1) so that the device then spoofs the initiator port to obtain information from the storage system; determining, by the device, an initiator world wide port name of the initiator port of the server (135-A), based on the registration information; transmitting, by the device, to the storage system, a REPORT LUN command including the initiator world wide port name and requesting data identifying one or more volumes in the storage system to which the initiator world wide port name has access; and receiving, from the storage system, in response to the REPORT LUN command, second information identifying the storage volume to which the initiator world wide port name has access; identifying a volume in the storage system to which the initiator port (I-1) has access, based on the second information; transmitting, by the device, to the storage system, a SCSI inquiry relating to the storage volume to which the initiator world wide port name has access; receiving, by the device, in response to the SCSI inquiry, information indicating a global unique identifier of the storage volume; determining, by the device, whether two storage volumes associated with the initiator world wide port name are identical based on the global unique identifier; intercepting, by the device I/O commands with respect to data stored in the storage system; determining, by the device, the origin of each intercepted I/O command; and providing, by the device, one or more selected data management actions with respect to each I/O command based on the origin of the I/O command.