mhurhangee/patent-ind-claim-en huggingface dataset:
A structural cabinet for an appliance , the structural cabinet comprising: - an outer wrapper and an inner liner defining an insulating cavity therebetween; - a first insulating structural layer disposed against an inner surface of the outer wrapper ; - a second insulating structural layer disposed against the inward surface of the inner liner ; and - a core insulating material disposed between the first and second insulating structural layers , wherein the first and second insulating structural layers reinforce the outer wrapper and inner liner , respectively, and resist deflection when the core insulating material is in a compressed state within the insulating cavity , wherein the first and second insulating structural layers are glass spheres , wherein the first and second insulating structural layers are adhered to the outer wrapper and the inner liner , respectively, wherein the core insulating material is substantially free of engagement with the outer wrapper and the inner liner , wherein the first and second insulating structural layers are each defined by at least one layer of glass spheres , wherein the glass spheres are hollow, wherein the structural cabinet further comprises an adhesive that is disposed between the first insulating structural layer and the inner surface of the outer wrapper and between the second insulating structural layer and the inward surface of the inner liner and wherein the compressed state of the core insulating material is defined by the at least partial vacuum defined within the insulating cavity . - an outer wrapper and an inner liner defining an insulating cavity therebetween; - a first insulating structural layer disposed against an inner surface of the outer wrapper ; - a second insulating structural layer disposed against the inward surface of the inner liner ; and - a core insulating material disposed between the first and second insulating structural layers , wherein the first and second insulating structural layers reinforce the outer wrapper and inner liner , respectively, and resist deflection when the core insulating material is in a compressed state within the insulating cavity , wherein the first and second insulating structural layers are glass spheres , wherein the first and second insulating structural layers are adhered to the outer wrapper and the inner liner , respectively, wherein the core insulating material is substantially free of engagement with the outer wrapper and the inner liner , wherein the first and second insulating structural layers are each defined by at least one layer of glass spheres , wherein the glass spheres are hollow, wherein the structural cabinet further comprises an adhesive that is disposed between the first insulating structural layer and the inner surface of the outer wrapper and between the second insulating structural layer and the inward surface of the inner liner and wherein the compressed state of the core insulating material is defined by the at least partial vacuum defined within the insulating cavity .
A system, comprising: a computing fabric including a plurality of different disaggregated computing hardware resources having respective hardware characteristics; a resource manager having access to the respective hardware characteristics of the different disaggregated computing hardware resources and configured to assemble a composite computing node by selecting one or more disaggregated computing hardware resources with respective hardware characteristics meeting requirements of an application to be executed on the composite computing node ; and an orchestrator configured to schedule the application using the assembled composite computing node, characterized in that the orchestrator is configured to determine, according to the application's requirements, a number of memory and/or storage tiers of the composite computing node, wherein different memory and/or storage tiers are associated with respective different hardware resource characteristics, and wherein the resource manager is configured to associate one or more memory or storage hardware resources meeting the respective hardware resource characteristic with a respective memory or storage tier and map a respective address range to a respective memory or storage tier. a computing fabric including a plurality of different disaggregated computing hardware resources having respective hardware characteristics; a resource manager having access to the respective hardware characteristics of the different disaggregated computing hardware resources and configured to assemble a composite computing node by selecting one or more disaggregated computing hardware resources with respective hardware characteristics meeting requirements of an application to be executed on the composite computing node ; and an orchestrator configured to schedule the application using the assembled composite computing node, characterized in that the orchestrator is configured to determine, according to the application's requirements, a number of memory and/or storage tiers of the composite computing node, wherein different memory and/or storage tiers are associated with respective different hardware resource characteristics, and wherein the resource manager is configured to associate one or more memory or storage hardware resources meeting the respective hardware resource characteristic with a respective memory or storage tier and map a respective address range to a respective memory or storage tier.
A computer-implemented method for registering a client device to obtain network access from a provider device, the method comprising: receiving , at a server, an authorization request for a user account to provide network access from one or more provider devices associated with the user account to one or more client devices associated with the user account, wherein a unique identifier for each of the one or more client devices and a unique identifier for each of the one or more provider devices are stored within user account; after successful authorization of the user account, receiving , at the server, a selection of one or more unique identifiers selected from the stored unique identifiers of the one or more client devices; providing , from the server, the received selection of one or more unique identifiers to each of the one or more provider devices; and providing , by the server and based on the user account, an indication to at least one of the one or more provider devices to monitor for a peer-to-peer request for network access from at least one of the one or more client devices, the peer-to-peer request from the at least one client device comprising at least one of the received selected one or more unique identifiers. receiving , at a server, an authorization request for a user account to provide network access from one or more provider devices associated with the user account to one or more client devices associated with the user account, wherein a unique identifier for each of the one or more client devices and a unique identifier for each of the one or more provider devices are stored within user account; after successful authorization of the user account, receiving , at the server, a selection of one or more unique identifiers selected from the stored unique identifiers of the one or more client devices; providing , from the server, the received selection of one or more unique identifiers to each of the one or more provider devices; and providing , by the server and based on the user account, an indication to at least one of the one or more provider devices to monitor for a peer-to-peer request for network access from at least one of the one or more client devices, the peer-to-peer request from the at least one client device comprising at least one of the received selected one or more unique identifiers.
A system for providing electric power to motor vehicles , the system comprising a control node and a number of outlet stations connected to a common electric power supply (P IN ), each of said outlet stations being configured to feed electric power to a specific motor vehicle during a power-transfer session, each of said outlet stations comprising an interface (IF1 WL , IF2 WL , IF3 WL , IF4 WL , IF5 WL , IF6 WL , IF7 WL , IF8 WL ; IF1 PL , IF2 PL , IF3 PL , IF4 PL , IF5 PL , IF6 PL , IF7 PL , IF8 PL ) towards the control node , the interfaces being configured to receive operation commands from the control node and send status messages to the control node, and if an interface between an outlet station and the control node is broken, the outlet station is configured to apply a power supply scheme according to which the outlet station is only allowed to deliver electric power up to a level specified by a predefined principle stored in each of the outlet stations , characterized in that the control node is co-located with the common electric power supply (P IN ), and the control node is configured to allocate a fraction (p6, p7) of the common electric power supply (P IN ) to each outlet station (126; 127) to which a motor vehicle (131; 132) is connected, said fractions being allocated such that a sum of all fractions representing a total delivered power being less than or equal to a predefined maximum level for the common electric power supply (P IN ), and a time-sharing procedure is applied among the outlet stations whose interface towards the control node is broken, which time-sharing procedure involves: dividing said outlet stations with broken interface towards the control node into a number of subgroups, each of which contains an equal number of outlet stations; and during particular intervals given by a predefined time sequence allowing electric power up to the predefined maximum level divided by the equal number of outlet stations to be delivered to each outlet station of said equal number of outlet stations in one of said subgroups at a time according to a repeating sequence.
Composition comprising: (A) a titania source comprising: (A1) TiO 2 particles; and (B) a solvent mixture comprising: (B1) cyclopentanol, cyclohexanol or a mixture thereof; (B2) polyethylene glycol, polypropylene glycol, poly(vinyl)alcohol, poly(vinyl)pyrrolidone, ethylcellulose or a mixture thereof; and (B3) an N,N-dialkylamide, an alkyl sulfoxide or a mixture thereof. (A) a titania source comprising: (A1) TiO 2 particles; and (B) a solvent mixture comprising: (B1) cyclopentanol, cyclohexanol or a mixture thereof; (B2) polyethylene glycol, polypropylene glycol, poly(vinyl)alcohol, poly(vinyl)pyrrolidone, ethylcellulose or a mixture thereof; and (B3) an N,N-dialkylamide, an alkyl sulfoxide or a mixture thereof. (B1) cyclopentanol, cyclohexanol or a mixture thereof; (B2) polyethylene glycol, polypropylene glycol, poly(vinyl)alcohol, poly(vinyl)pyrrolidone, ethylcellulose or a mixture thereof; and (B3) an N,N-dialkylamide, an alkyl sulfoxide or a mixture thereof.
A dispensing apparatus for containing a pressurized composition , the dispensing apparatus comprising: a. a reservoir for containing a composition; b. a flow conduit comprising a proximal end in fluid communication with the reservoir and a distal end forming a flow conduit orifice , c. a displaceable actuator head , the actuator head comprising a side wall having an interior surface , the actuator head forming a dispensing orifice through the side wall, the interior surface is moveably engaged with the distal end ; d. an intermediate member interposed between the interior surface and the distal end having an aperture extending there through, characterized in that the intermediate member is affixed to the interior surface aligning the aperture with the dispensing orifice ; wherein the displaceable actuator head is biased to an at-rest position sealing the flow conduit orifice against the intermediate member and wherein the displaceable actuator head can be movably actuated to at least partially engage the intermediate member in a dispense position thereby at least partially aligning the dispensing orifice with the flow conduit orifice through the aperture , and wherein the displaceable actuator head is biased into an at rest position by a spring providing a biasing force, and the biasing force on the displaceable actuator head is less than the force between the flow conduit and intermediate member. a. a reservoir for containing a composition; b. a flow conduit comprising a proximal end in fluid communication with the reservoir and a distal end forming a flow conduit orifice , c. a displaceable actuator head , the actuator head comprising a side wall having an interior surface , the actuator head forming a dispensing orifice through the side wall, the interior surface is moveably engaged with the distal end ; d. an intermediate member interposed between the interior surface and the distal end having an aperture extending there through, characterized in that the intermediate member is affixed to the interior surface aligning the aperture with the dispensing orifice ;
A method of preparing a nucleic acid library from a sample comprising; (i) reacting a sample comprising a plurality of cellular nucleic acids each having a terminal 3'-modified dideoxynucleotide (ddNTP) comprising a 3'-azido moiety, with a plurality of adaptor nucleic acids each comprising a terminal 5'-modified ddNTP comprising a 5'-alkynyl moiety, wherein the 3' functional moiety and 5' functional moiety react in a click chemistry reaction to form a modified backbone linkage comprising the structure thereby forming a plurality of ligated-nucleic acids; and (ii) amplifying the plurality of ligated-nucleic acids thereby preparing a nucleic acid library from the sample, wherein the terminal 3'-modified ddNTP is incorporated into each of the plurality of cellular nucleic acids by contacting the plurality of cellular nucleic acids with a template independent polymerase, and wherein the template independent polymerase is TdT. (i) reacting a sample comprising a plurality of cellular nucleic acids each having a terminal 3'-modified dideoxynucleotide (ddNTP) comprising a 3'-azido moiety, with a plurality of adaptor nucleic acids each comprising a terminal 5'-modified ddNTP comprising a 5'-alkynyl moiety, wherein the 3' functional moiety and 5' functional moiety react in a click chemistry reaction to form a modified backbone linkage comprising the structure thereby forming a plurality of ligated-nucleic acids; and (ii) amplifying the plurality of ligated-nucleic acids thereby preparing a nucleic acid library from the sample, wherein the terminal 3'-modified ddNTP is incorporated into each of the plurality of cellular nucleic acids by contacting the plurality of cellular nucleic acids with a template independent polymerase, and wherein the template independent polymerase is TdT.
A method for contacting and electrically connecting at least one back-contact photovoltaic cell, the method comprising: - providing at least one back-contact photovoltaic cell (20;70;90), wherein said at least one back-contact photovoltaic cell comprises at least a first metal contact of a first polarity and a second metal contact of a second, opposite polarity on a single surface thereof; - providing a woven fabric (10;60) comprising a plurality of insulating ribbons arranged in only a single one direction selected from the group consisting of a warp direction and a weft direction of the woven fabric, and a plurality of conductive wires arranged in a weft direction or a warp direction or both of the woven fabric, the direction of arrangement of a first plurality of first conductive wires of the plurality of wires being different from the direction of arrangement of the plurality of insulating ribbons, wherein at least one of the plurality of conductive wires comprises at least a first segment and a second segment that are electrically isolated from each other; - bringing the woven fabric (10;60) into physical contact with said surface of the at least one back-contact photovoltaic cell (20;70;90); - performing a heating process to establish an electrical connection between the first metal contact and the first segment and to establish an electrical connection between the second metal contact and the second segment , wherein this heating process furthermore liquefies the plurality of insulating ribbons to transform the plurality of insulating ribbons into an encapsulation layer. - providing at least one back-contact photovoltaic cell (20;70;90), wherein said at least one back-contact photovoltaic cell comprises at least a first metal contact of a first polarity and a second metal contact of a second, opposite polarity on a single surface thereof; - providing a woven fabric (10;60) comprising a plurality of insulating ribbons arranged in only a single one direction selected from the group consisting of a warp direction and a weft direction of the woven fabric, and a plurality of conductive wires arranged in a weft direction or a warp direction or both of the woven fabric, the direction of arrangement of a first plurality of first conductive wires of the plurality of wires being different from the direction of arrangement of the plurality of insulating ribbons, wherein at least one of the plurality of conductive wires comprises at least a first segment and a second segment that are electrically isolated from each other; - bringing the woven fabric (10;60) into physical contact with said surface of the at least one back-contact photovoltaic cell (20;70;90); - performing a heating process to establish an electrical connection between the first metal contact and the first segment and to establish an electrical connection between the second metal contact and the second segment , wherein this heating process furthermore liquefies the plurality of insulating ribbons to transform the plurality of insulating ribbons into an encapsulation layer.
Loading floor for a vehicle, comprising a plurality of profile members which are elongate in a longitudinal direction, which are arranged beside each other and which are connected to each other, in which the loading floor has at least one hollow space which is continuous in the longitudinal direction, characterized in that the hollow space has at least one lateral opening , which is not continuous in the longitudinal direction, with respect to an outer space of the loading floor and which is further laterally closed, so that an air conditioning air stream which can be directed through the hollow space is discharged from the hollow space and thereby reaches an inner space of the vehicle, wherein at least one profile member has a longitudinal groove and wherein the lateral opening of the hollow space of the profile member that is continuous in the longitudinal direction opens in the longitudinal groove .
A terminal device capable of communication using any communication method classified as vehicle-to-x (V2X), comprising: an acquisition unit configured to acquire first information relating to allocation of a resource pool that can be used by a plurality of terminal devices using the communication method and second information relating to transmit power which is associated with a beam ID of one or a plurality of transmit beams which the terminal devices use in communication using the communication method; a parameter determination unit configured to determine parameters relating to the transmit beams on a basis of the first information and the second information; and a transmission processing unit configured to perform packet transmission processing using the communication method on a basis of the determined parameters, wherein the second information includes information, relating to gain with respect to an interference protection target, which is obtained due to the transmit beam and wherein a determined parameter is the transmit power of the communication. an acquisition unit configured to acquire first information relating to allocation of a resource pool that can be used by a plurality of terminal devices using the communication method and second information relating to transmit power which is associated with a beam ID of one or a plurality of transmit beams which the terminal devices use in communication using the communication method; a parameter determination unit configured to determine parameters relating to the transmit beams on a basis of the first information and the second information; and a transmission processing unit configured to perform packet transmission processing using the communication method on a basis of the determined parameters, wherein the second information includes information, relating to gain with respect to an interference protection target, which is obtained due to the transmit beam and wherein a determined parameter is the transmit power of the communication.
A radius end mill comprising: a tool body ; a cutting edge composed of an end cutting edge disposed at a front end of the tool body , an outer peripheral cutting edge disposed on an outer periphery of the tool body , and a corner R cutting edge which extends between the end cutting edge and the outer peripheral cutting edge ; a rake face of the end cutting edge , the corner R cutting edge and the outer peripheral cutting edge , said rake face disposed to be continuous with the cutting edge ; and a chip removal flute which extends at the back of the rake face , wherein the rake face comprises a corner gash disposed adjacent to the corner R cutting edge , wherein an edge of the corner gash is in contact with the corner R cutting edge , the radius end mill being characterized in that the edge of the corner gash has a first end located at a first position (A) at an inside relative to an interface (P) of the corner R cutting edge and the end cutting edge and a second end located at a second position (B) at an inside relative to an interface (Q) of the corner R cutting edge and the outer peripheral cutting edge , wherein the corner gash is in contact with an intermediate position of the corner R cutting edge which does not overlap any of the interfaces (P, Q), and wherein an axial rake (α) at the first end position (A) is in the range of 5 to 20 degrees. a tool body ; a cutting edge composed of an end cutting edge disposed at a front end of the tool body , an outer peripheral cutting edge disposed on an outer periphery of the tool body , and a corner R cutting edge which extends between the end cutting edge and the outer peripheral cutting edge ; a rake face of the end cutting edge , the corner R cutting edge and the outer peripheral cutting edge , said rake face disposed to be continuous with the cutting edge ; and a chip removal flute which extends at the back of the rake face , wherein the rake face comprises a corner gash disposed adjacent to the corner R cutting edge , wherein an edge of the corner gash is in contact with the corner R cutting edge , the radius end mill being characterized in that the edge of the corner gash has a first end located at a first position (A) at an inside relative to an interface (P) of the corner R cutting edge and the end cutting edge and a second end located at a second position (B) at an inside relative to an interface (Q) of the corner R cutting edge and the outer peripheral cutting edge , wherein the corner gash is in contact with an intermediate position of the corner R cutting edge which does not overlap any of the interfaces (P, Q), and wherein an axial rake (α) at the first end position (A) is in the range of 5 to 20 degrees.