mhurhangee/ep-ind-claims huggingface dataset:
A method for making linear low density polyethylene (LLDPE) grades having different xylene solubles or hexane extractables with the same Ziegler-Natta catalyst by varying the amount of an alkylaluminum used for polymerization, said method comprising: (a) copolymerizing ethylene with a C 3-10 α-olefin in the presence of the Ziegler-Natta catalyst, alkylaluminum, and an electron donor; (b) determining the dependency of the xylene solubles or hexane extractables on the alkylaluminum/electron donor ratio; and (c) varying the alkylaluminum/electron donor ratio to achieve LLDPE grades having desired xylene solubles or hexane extractables. wherein the alkylaluminum Is triethylaluminum and the Ziegler-Natta catalyst is supported on MgCl2, and wherein the Ziegler-Natta catalyst is obtained with the following process: TiCl 4 is mixed with MgCl 2 in the presence of an inert solvent to obtain an intermediate product; the intermediate product is isolated from the solvent; tetrahydrofuran, THF, is then contacted with this intermediate product; the tetrahydrofuran, THF, treated product can then be washed with solvents to form a supported catalyst; the supported catalyst has an Mg/Ti molar ratio within the range of 10 to 50 and a molar ratio THF/to the Ti compound within the range of 10 to 20. (a) copolymerizing ethylene with a C 3-10 α-olefin in the presence of the Ziegler-Natta catalyst, alkylaluminum, and an electron donor; (b) determining the dependency of the xylene solubles or hexane extractables on the alkylaluminum/electron donor ratio; and (c) varying the alkylaluminum/electron donor ratio to achieve LLDPE grades having desired xylene solubles or hexane extractables. TiCl 4 is mixed with MgCl 2 in the presence of an inert solvent to obtain an intermediate product; the intermediate product is isolated from the solvent; tetrahydrofuran, THF, is then contacted with this intermediate product; the tetrahydrofuran, THF, treated product can then be washed with solvents to form a supported catalyst; the supported catalyst has an Mg/Ti molar ratio within the range of 10 to 50 and a molar ratio THF/to the Ti compound within the range of 10 to 20.
Vehicle interior trim panel, said panel comprising: • a body in the general form of a plate having a front face for receiving a load and a back face, • and at least one elongate metal profile for flexurally stiffening said body, said profile extending substantially from one edge to another opposing edge of said body, said profile being formed by a flat steel sheet strip bent along its length along at least one bend line (7a,7b) so as to maximise its moment of inertia along its length, the steel of said sheet having a yield strength higher than 400 MPa, said panel being characterised in that said strip is bent in the same direction at a right angle along two bend lines (7a,7b), such that said profile has: • two parallel sections (8a,8b) extending opposite one another respectively according to each of the faces (3,4) of the body, • and a junction section of said parallel sections, said junction section extending according to the thickness of said body. • a body in the general form of a plate having a front face for receiving a load and a back face, • and at least one elongate metal profile for flexurally stiffening said body, said profile extending substantially from one edge to another opposing edge of said body, said profile being formed by a flat steel sheet strip bent along its length along at least one bend line (7a,7b) so as to maximise its moment of inertia along its length, the steel of said sheet having a yield strength higher than 400 MPa, • two parallel sections (8a,8b) extending opposite one another respectively according to each of the faces (3,4) of the body, • and a junction section of said parallel sections, said junction section extending according to the thickness of said body.
A method for deferring a switchback, wherein the method comprises: sending, by a first network device, a query packet to a second network device after a communication connection between the first network device and the second network device is established, wherein the query packet is used to trigger the second network device to detect whether a route from the second network device to a destination device is available, and the second network device is a primary network device for the first network device on a primary route; and receiving, by the first network device, a query response packet sent by the second network device, and switching back, by the first network device, from a secondary route to a primary route, wherein the query response packet is used to indicate availability of the route between the second network device and the destination device, a destination address of the secondary route is an IP address of the destination device, a next hop of the secondary route is a third network device, a destination address of the primary route is the IP address of the destination device, a next hop of the primary route is the second network device, and the third network device is a secondary network device for the second network device. sending, by a first network device, a query packet to a second network device after a communication connection between the first network device and the second network device is established, wherein the query packet is used to trigger the second network device to detect whether a route from the second network device to a destination device is available, and the second network device is a primary network device for the first network device on a primary route; and receiving, by the first network device, a query response packet sent by the second network device, and switching back, by the first network device, from a secondary route to a primary route, wherein the query response packet is used to indicate availability of the route between the second network device and the destination device, a destination address of the secondary route is an IP address of the destination device, a next hop of the secondary route is a third network device, a destination address of the primary route is the IP address of the destination device, a next hop of the primary route is the second network device, and the third network device is a secondary network device for the second network device.
A method for producing a magnetic anisotropic rare earth sintered magnet comprising: a powder feeding step of feeding an alloy powder into a mold having side walls divided into two or more sections; a filling step of filling the alloy powder into the mold to prepare a filled molded-body; an orienting step of orienting the alloy powder in the filled molded-body by applying a magnetic field to the filled molded-body to prepare an oriented filled-molded-body; a retrieving step of detaching the side walls of the mold from the oriented filled-molded-body and retrieving the oriented filled-molded-body from the mold; and a sintering step of sintering the retrieved oriented filled-molded-body, wherein the filling step and the orienting step are performed at different locations, and wherein the mold is not carried in the sintering step. a powder feeding step of feeding an alloy powder into a mold having side walls divided into two or more sections; a filling step of filling the alloy powder into the mold to prepare a filled molded-body; an orienting step of orienting the alloy powder in the filled molded-body by applying a magnetic field to the filled molded-body to prepare an oriented filled-molded-body; a retrieving step of detaching the side walls of the mold from the oriented filled-molded-body and retrieving the oriented filled-molded-body from the mold; and a sintering step of sintering the retrieved oriented filled-molded-body, wherein the filling step and the orienting step are performed at different locations, and
A single-use injection device, comprising: a hub bearing a needle, having a distal surface for engaging a shield assembly; the shield assembly comprising an inner shield radially outward of the needle and having features engaging the hub, the needle protruding from the inner shield in an initial position, an outer shield radially outward of the inner shield adapted to retain the inner shield and the needle in the initial position and to release the inner shield from said initial position to a second position covering the needle after an injection, and an outer sleeve radially outward of the outer shield; a first spring biasing the inner shield in a distal direction covering the needle in the second position; a small-volume reservoir containing medication, adapted to be pierced by the needle to provide fluid communication with the needle cannula; and a thumb button characterized in that the hub having a proximal slot for engaging and guiding movement of the thumb button and the thumb button having a tab engaging and moving in the proximal slot on the hub and enclosing the reservoir between the thumb button and the hub, the thumb button having a plunger on a proximal side thereof engaging the reservoir to dispense medication from the distal end of the needle. a hub bearing a needle, having a distal surface for engaging a shield assembly; the shield assembly comprising an inner shield radially outward of the needle and having features engaging the hub, the needle protruding from the inner shield in an initial position, an outer shield radially outward of the inner shield adapted to retain the inner shield and the needle in the initial position and to release the inner shield from said initial position to a second position covering the needle after an injection, and an outer sleeve radially outward of the outer shield; a first spring biasing the inner shield in a distal direction covering the needle in the second position; a small-volume reservoir containing medication, adapted to be pierced by the needle to provide fluid communication with the needle cannula; and a thumb button
A low-penetrating particles low gain avalanche detector with a multi-layered structure, configured to receive particles from a radiation source, wherein the detector comprises: - an entry region, configured to receive the particles from the radiation source, and that comprises: ∘ a p++ shallow field stop, and - a low-penetrating particles detection region, which comprises the following layers, in increasing depth: ∘ a p absorption layer, positioned beneath the p++ shallow field stop, ∘ an n multiplication layer, positioned beneath the p absorption layer, - a high-penetrating particles detection region, which comprises: ∘ an n-- silicon substrate, following the n multiplication layer, below the low-penetrating particles detection region, - a readout region, contacting the high-penetrating particles detection region, and - a periphery region, which comprises: ∘ a p+ termination doping, positioned laterally on both sides of the p++ shallow field stop, and ∘ one or more metal contacts, joined to the p++ shallow field stop. - an entry region, configured to receive the particles from the radiation source, and that comprises: ∘ a p++ shallow field stop, and ∘ a p++ shallow field stop, and - a low-penetrating particles detection region, which comprises the following layers, in increasing depth: ∘ a p absorption layer, positioned beneath the p++ shallow field stop, ∘ an n multiplication layer, positioned beneath the p absorption layer, ∘ a p absorption layer, positioned beneath the p++ shallow field stop, ∘ an n multiplication layer, positioned beneath the p absorption layer, - a high-penetrating particles detection region, which comprises: ∘ an n-- silicon substrate, following the n multiplication layer, below the low-penetrating particles detection region, ∘ an n-- silicon substrate, following the n multiplication layer, below the low-penetrating particles detection region, - a readout region, contacting the high-penetrating particles detection region, and - a periphery region, which comprises: ∘ a p+ termination doping, positioned laterally on both sides of the p++ shallow field stop, and ∘ one or more metal contacts, joined to the p++ shallow field stop. ∘ a p+ termination doping, positioned laterally on both sides of the p++ shallow field stop, and ∘ one or more metal contacts, joined to the p++ shallow field stop.
A linear force measurement device for a hydraulic actuator of an orthopedic device, having a base, a bearing receptacle, and at least one sensor for detecting changes in length between the base and the bearing receptacle, wherein the bearing receptacle is connected to the base in a material- locking manner via two mutually opposite webs, and the at least one sensor is fastened to one of the webs, wherein a stiffening element for stiffening the webs is arranged between the webs, and the base, the bearing receptacle, the webs and the stiffening element form a receiving space open at one side.
A method comprising: receiving a packet at an ingress interface of a network device in communication with a plurality of client nodes, the packet identifying a first of said client nodes; determining an ingress logical entity index representing said first client node based on information in the packet; performing a look up in an ingress logical entity table stored at the network device using the determined ingress logical entity index to locate ingress policies associated with said ingress logical entity index, the ingress table comprising an entry for each of a plurality of logical entity indices representing respective ones of said client nodes, each entry comprising a plurality of ingress policies associated with a client node represented by the respective ingress logical entity index; applying said plurality of ingress policies associated with said determined ingress logical entity index representing said first client node at a forwarding engine at the network device; generating by the forwarding engine a rewrite index; performing a lookup in an egress logical entity table stored at the network device using the determined rewrite index to locate egress policies associated with said rewrite index; applying the egress policies associated with said determined rewrite index at the forwarding engine; rewriting the packet if needed at a rewrite engine based on the rewrite index; and forwarding the packet at an egress interface of the network device. receiving a packet at an ingress interface of a network device in communication with a plurality of client nodes, the packet identifying a first of said client nodes; determining an ingress logical entity index representing said first client node based on information in the packet; performing a look up in an ingress logical entity table stored at the network device using the determined ingress logical entity index to locate ingress policies associated with said ingress logical entity index, the ingress table comprising an entry for each of a plurality of logical entity indices representing respective ones of said client nodes, each entry comprising a plurality of ingress policies associated with a client node represented by the respective ingress logical entity index; applying said plurality of ingress policies associated with said determined ingress logical entity index representing said first client node at a forwarding engine at the network device; generating by the forwarding engine a rewrite index; performing a lookup in an egress logical entity table stored at the network device using the determined rewrite index to locate egress policies associated with said rewrite index; applying the egress policies associated with said determined rewrite index at the forwarding engine; rewriting the packet if needed at a rewrite engine based on the rewrite index; and forwarding the packet at an egress interface of the network device.
A computer-implemented method comprising: detecting, via a processor, a voice trigger included in audio content received via a microphone associated with a listening device; characterized in that, in response to detecting the voice trigger: temporally compressing at least a portion of the audio content that was recorded within several seconds or several minutes prior to detecting the voice trigger to generate temporally compressed sound, and reproducing the temporally compressed sound. temporally compressing at least a portion of the audio content that was recorded within several seconds or several minutes prior to detecting the voice trigger to generate temporally compressed sound, and reproducing the temporally compressed sound.
A wirelessly configurable and networked system for building automation, the system being a first child device comprising: a processor included in the first child device; a radio-frequency, RF, circuit included in the first child device and configured to receive an RF signal using a wireless-communication protocol, the RF circuit comprising an antenna; and a memory included in the first child device and storing instructions that, when executed by the processor, cause the processor to: receive commissioning data via the RF circuit, wherein the commissioning data is associated with the system, receive an identifier from a second child device, wherein the identifier is associated with the second child device, receive configuration data associated with the identifier, and transmit the configuration data in response to receiving the identifier, wherein the second child device operates based on at least the configuration data. a processor included in the first child device; a radio-frequency, RF, circuit included in the first child device and configured to receive an RF signal using a wireless-communication protocol, the RF circuit comprising an antenna; and a memory included in the first child device and storing instructions that, when executed by the processor, cause the processor to: receive commissioning data via the RF circuit, wherein the commissioning data is associated with the system, receive an identifier from a second child device, wherein the identifier is associated with the second child device, receive configuration data associated with the identifier, and transmit the configuration data in response to receiving the identifier, wherein the second child device operates based on at least the configuration data. receive commissioning data via the RF circuit, wherein the commissioning data is associated with the system, receive an identifier from a second child device, wherein the identifier is associated with the second child device, receive configuration data associated with the identifier, and transmit the configuration data in response to receiving the identifier, wherein the second child device operates based on at least the configuration data.
A microfluidic device, comprising: a first processing region, the first processing region comprised of a retention member; said retention member being configured to preferentially retain one or more polynucleotides in a sample as compared to polymerase chain reaction inhibitors in the sample, wherein said retention member comprises a plurality of polynucleotide retaining particles, and said plurality of retaining particles comprising at least one ligand comprising a poly-cationic polyamide, further wherein the retention member is configured to retain polynucleotides at a first pH and release polynucleotides at a second pH, wherein the second pH is at least about 10; a fluid reservoir comprising a release liquid having a pH of at least about 10, wherein the device is configured to contact the retention member with the liquid; a second processing region to receive the polynucleotides released from the retaining particles in the first processing region, the second processing region comprising one or more lyophilized particles containing one or more PCR reagents; and a detection region. a first processing region, the first processing region comprised of a retention member; said retention member being configured to preferentially retain one or more polynucleotides in a sample as compared to polymerase chain reaction inhibitors in the sample, wherein said retention member comprises a plurality of polynucleotide retaining particles, and said plurality of retaining particles comprising at least one ligand comprising a poly-cationic polyamide, further wherein the retention member is configured to retain polynucleotides at a first pH and release polynucleotides at a second pH, wherein the second pH is at least about 10; a fluid reservoir comprising a release liquid having a pH of at least about 10, wherein the device is configured to contact the retention member with the liquid; a second processing region to receive the polynucleotides released from the retaining particles in the first processing region, the second processing region comprising one or more lyophilized particles containing one or more PCR reagents; and a detection region.
A programmer interface for an industrial control system, the industrial control system including a plurality of devices (20, 50), each device operatively connected to an industrial machine or process and each device in communication with an industrial network, the programmer interface comprising: a network interface configured to communicate via the industrial network; means configured to store a plurality of electronic data sheets in the programmer interface, each electronic data sheet corresponding to one of the devices, wherein each electronic data sheet defines at least one option for the device and a plurality of choices available for each option; means configured to store a plurality of option data sheets in the programmer interface, each option data sheet corresponding to one of the options defined in the electronic data sheets, wherein each of the option data sheets defines, corresponding to a choice for the option, at least one variable of the device, such as connection settings, port information and/or data types for communication over the industrial network; a display configured to display data to a programmer, an input device configured to receive input from the programmer, and a processor configured to execute a stored program to read each of the plurality of electronic data sheets and the option data sheets corresponding to choices selected for each option of each device and to generate a configuration file identifying the at least one variable for each choice selected for each option of each device connected to the industrial network. a network interface configured to communicate via the industrial network; means configured to store a plurality of electronic data sheets in the programmer interface, each electronic data sheet corresponding to one of the devices, wherein each electronic data sheet defines at least one option for the device and a plurality of choices available for each option; means configured to store a plurality of option data sheets in the programmer interface, each option data sheet corresponding to one of the options defined in the electronic data sheets, wherein each of the option data sheets defines, corresponding to a choice for the option, at least one variable of the device, such as connection settings, port information and/or data types for communication over the industrial network; a display configured to display data to a programmer, an input device configured to receive input from the programmer, and a processor configured to execute a stored program to read each of the plurality of electronic data sheets and the option data sheets corresponding to choices selected for each option of each device and to generate a configuration file identifying the at least one variable for each choice selected for each option of each device connected to the industrial network.