mhurhangee/patent-ind-claim-en huggingface dataset:
Process for the recovery of raw material from waste products, comprising at least the phases of: - supply (A) of at least one skein to be treated derived from waste products and composed of at least a harmonic steel fraction and a non-ferrous fraction; - pre-treatment (F) of said skein to be treated to separate said harmonic steel fraction from said non-ferrous fraction to obtain at least one treated skein ; - heat treatment (B) of said pre-treated skein to obtain at least one treated skein , said phase of heat treatment (B) comprising a step of inductive exposure (B1) of said pre-treated skein to at least one time-varying magnetic field for the induction of eddy electric currents in said pre-treated skein , said step of inductive exposure (B1) being adapted to raise the temperature of said pre-treated skein to at least one working temperature; - post-treatment (E) of said treated skein to obtain steel reusable as raw material; characterized by the fact that said working temperature is substantially below 800 °C and by the fact that said phase of pre-treatment (F) comprises at least one step of mechanical separation (F1) of said harmonic steel fraction from said non-ferrous fraction. - supply (A) of at least one skein to be treated derived from waste products and composed of at least a harmonic steel fraction and a non-ferrous fraction; - pre-treatment (F) of said skein to be treated to separate said harmonic steel fraction from said non-ferrous fraction to obtain at least one treated skein ; - heat treatment (B) of said pre-treated skein to obtain at least one treated skein , said phase of heat treatment (B) comprising a step of inductive exposure (B1) of said pre-treated skein to at least one time-varying magnetic field for the induction of eddy electric currents in said pre-treated skein , said step of inductive exposure (B1) being adapted to raise the temperature of said pre-treated skein to at least one working temperature; - post-treatment (E) of said treated skein to obtain steel reusable as raw material;
A communication method, comprising: assigning , by a control plane device, an Internet Protocol, IP, address to user equipment; obtaining , by the control plane device by using a routing policy network element, a routing rule corresponding to the IP address, wherein the routing rule is determined based on a session and service continuity requirement of an application; wherein the routing rule comprises an IP address segment corresponding to applications having a same session and service continuity requirement; and sending , by the control plane device, the routing rule and the IP address to the user equipment, wherein the routing rule is used , by the user equipment, to select a source IP address, wherein the source IP address is used to access the application. assigning , by a control plane device, an Internet Protocol, IP, address to user equipment; obtaining , by the control plane device by using a routing policy network element, a routing rule corresponding to the IP address, wherein the routing rule is determined based on a session and service continuity requirement of an application; wherein the routing rule comprises an IP address segment corresponding to applications having a same session and service continuity requirement; and sending , by the control plane device, the routing rule and the IP address to the user equipment, wherein the routing rule is used , by the user equipment, to select a source IP address, wherein the source IP address is used to access the application.
Sealed holographic medium comprising a layer construction B'-C1'-C2', wherein B' is a photopolymer layer containing a volume hologram, C1' is a protective layer cured by actinic radiation obtained by reaction of I) at least one thermoplastic mainly linear and semicrystalline polyurethane resin C1-I, II) at least one multifunctional acrylate reactive diluent C1-II, III) at least one photoinitiator C1-III and IV) optionally assistant and added substances and C2' is a protective layer cured by actinic radiation, obtained by reaction of I) at least one thermoplastic resin C2-I selected from the group consisting of polyvinyl butyral and polymethyl methacrylate, II) at least one multifunctional acrylate reactive diluent C2-II, III) at least one photoinitiator C2-III and IV) optionally assistant and added substances, wherein the photopolymer layer B' is sealed by the protective layers CI' and C2'. I) at least one thermoplastic mainly linear and semicrystalline polyurethane resin C1-I, II) at least one multifunctional acrylate reactive diluent C1-II, III) at least one photoinitiator C1-III and IV) optionally assistant and added substances and I) at least one thermoplastic resin C2-I selected from the group consisting of polyvinyl butyral and polymethyl methacrylate, II) at least one multifunctional acrylate reactive diluent C2-II, III) at least one photoinitiator C2-III and IV) optionally assistant and added substances,
A propulsion unit , comprising: a motor rotor that spins about a central rotational axis; a clip-in base mount disposed on the motor rotor; a clip-in rotor cap shaped to mate with and detachably clip into the clip-in base mount, wherein the clip-in base mount includes one or more cam grooves and the clip-in rotor cap includes holding cams that mate to the one or more cam grooves, and wherein the clip-in base mount further comprises detents disposed in the one or more cam grooves to provide resistance to a rotational separation of the holding cams from the one or more cam grooves; propeller mounts attached to the clip-in rotor cap; and propeller blades each having a proximal base and a distal tip, wherein the proximal base of each propeller blade mounts to a corresponding one of the propeller mounts. a motor rotor that spins about a central rotational axis; a clip-in base mount disposed on the motor rotor; a clip-in rotor cap shaped to mate with and detachably clip into the clip-in base mount, wherein the clip-in base mount includes one or more cam grooves and the clip-in rotor cap includes holding cams that mate to the one or more cam grooves, and wherein the clip-in base mount further comprises detents disposed in the one or more cam grooves to provide resistance to a rotational separation of the holding cams from the one or more cam grooves; propeller mounts attached to the clip-in rotor cap; and propeller blades each having a proximal base and a distal tip, wherein the proximal base of each propeller blade mounts to a corresponding one of the propeller mounts.
- Opening device for a package being filled with a pourable product and having a main body provided with a designated pour opening ; the opening device comprises at least: - a base frame for coupling the opening device to the main body and about the designated pour opening ; and - a covering membrane rupturably connected to the base frame along a weakening line and configured to cover the designated pour opening ; wherein the weakening line comprises a first end and a second end distinct and separated from one another; wherein the covering membrane is further connected to the base frame along a tethering portion extending between the first end and the second end ; wherein the weakening line and the tethering portion are configured such that, in use, upon exertion of an opening force on the covering membrane , the covering membrane separates from the base frame along the weakening line and remains attached to the base frame along the tethering portion ; characterized in that the covering membrane comprises a first portion and a second portion being rupturably connected to one another along an auxiliary weakening line ; wherein the auxiliary weakening line is configured such that, in use, upon exertion of the opening force, the first portion and the second portion separate from one another along the auxiliary weakening line . - a base frame for coupling the opening device to the main body and about the designated pour opening ; and - a covering membrane rupturably connected to the base frame along a weakening line and configured to cover the designated pour opening ; wherein the weakening line comprises a first end and a second end distinct and separated from one another; wherein the covering membrane is further connected to the base frame along a tethering portion extending between the first end and the second end ; wherein the weakening line and the tethering portion are configured such that, in use, upon exertion of an opening force on the covering membrane , the covering membrane separates from the base frame along the weakening line and remains attached to the base frame along the tethering portion ; characterized in that the covering membrane comprises a first portion and a second portion being rupturably connected to one another along an auxiliary weakening line ; wherein the auxiliary weakening line is configured such that, in use, upon exertion of the opening force, the first portion and the second portion separate from one another along the auxiliary weakening line .
A method for managing data in a passenger cabin equipped with a standardized architecture (10a to 10f) for distributing data streams (F1, F2) between data resources (211 to 213) of a systems part comprising an audiovisual transmission system, systems for outward communication from the cabin and/or cabin systems, and a part for utilization of these data consisting on cabin devices (E1 to E4) recipient via a conversion of data into optical signals, distributed to these devices via an interface, the transmission of data can be conducted in both upstream and downstream directions characterized in that , the data of each resource being electrical signals, conversion into analog, optical or hertzian signals, it consists in transmitting, in a so-called downgoing direction, the data supplied by at least one system of the systems part to a single concentration and configuration interface which steers the data of the resources (211 to 213) according to the recipient device (E1 to E4), converts the non-optical data into optical signals, and then allocates wavelengths to the optical signals and distributes them by multiplexing and parametrization of priorities as a function of the recipient devices (E1 to E4) and/or resources (211 to 213) as a function of the devices for a given resource, so as to transmit these multiplexed streams (F1) of optical signals on a pathway (2; 2a, 2'a; 2b) of at least one optical distribution network (20 to 22) to the recipient devices (E1 to E4) of the utilization part via an intermediate interface which manages the wavelengths of the optical signals and reconverts them into signals suited to the devices (E1 to E4) if relevant, and in that the transmission of data is also undertaken in the reverse so-called upgoing direction according to a processing reversed at each interface from devices (E1 to E4) of the cabin to the resources concerned (210; 211 to 213) via the intermediate interface as a function of the resource concerned (211 to 213), the optical distribution network (20 to 22) and then the concentration and configuration interface which transmits them to the resource concerned (211 to 213).
Guidance system for a drone , comprising: - a plurality of devices (12-20) being interconnected in a wireless network and comprising a radio communication module (22-30) for communicating with the drone ; - a controller connected to the wireless network and intended to program a flight path (P) of the drone by transmitting configuration commands to the respective devices of the wireless network , for configuring the radio communication modules ,, characterized by the fact that: - a plurality of poles (2-10) are fixed to the ground and powered by a private or public electric power grid; - each of said devices is fixed to one of said pole (2-10) and being powered by the electric power grid; - said flight path (P) is a path between two or more poles , and - said configuration commands comprise a code for identifying the drone and, for each of said devices , a code identifying a following device along said flight path (P) towards which guiding the drone and flight coordinates with deviation intervals, and wherein the radio communication module of one device on a pole in the flight path (P) is configured to guide the drone towards the radio communication module of the following device on a pole in the flight path (P). - a plurality of devices (12-20) being interconnected in a wireless network and comprising a radio communication module (22-30) for communicating with the drone ; - a controller connected to the wireless network and intended to program a flight path (P) of the drone by transmitting configuration commands to the respective devices of the wireless network , for configuring the radio communication modules ,, - a plurality of poles (2-10) are fixed to the ground and powered by a private or public electric power grid; - each of said devices is fixed to one of said pole (2-10) and being powered by the electric power grid; - said flight path (P) is a path between two or more poles , and - said configuration commands comprise a code for identifying the drone and, for each of said devices , a code identifying a following device along said flight path (P) towards which guiding the drone and flight coordinates with deviation intervals, and wherein the radio communication module of one device on a pole in the flight path (P) is configured to guide the drone towards the radio communication module of the following device on a pole in the flight path (P).
A method of treating wine in a barrel, comprising: (a) extracting less than 50% by volume of the wine from the barrel; (b) treating said extracted wine by use of the system of claim 11; and (c) returning the treated wine into the barrel. (a) extracting less than 50% by volume of the wine from the barrel; (b) treating said extracted wine by use of the system of claim 11; and (c) returning the treated wine into the barrel.
A wireless communication apparatus comprising: a memory ; and a Multi-Input-Multi-Output, MIMO, and beamforming processor to process Multi-User, MU, MIMO communications via an antenna array of a wireless communication node , the MIMO and beamforming processor to cause one or more first sub-arrays of the antenna array to form one or more first directional beams to allow communications on one or more backhaul links between the wireless communication node and one or more other wireless communication nodes , and to cause one or more second sub-arrays of the antenna array to form one or more second directional beams to allow communications on one or more access links between the wireless communication node and one or more User Equipment, UEs ; a backhaul processor to process the communications on said one or more backhaul links and configured to forward traffic received from a first other wireless communication node via a first backhaul beam to a second other wireless communication node via a second backhaul beam ; and an access processor to process the communications on said one or more access links, and configured to send data received from a UE to the backhaul processor that further sends the data to the first other wireless communication node through a baseband processor, wherein the access processor and the backhaul processor are implemented as two separate elements. a memory ; and a Multi-Input-Multi-Output, MIMO, and beamforming processor to process Multi-User, MU, MIMO communications via an antenna array of a wireless communication node , the MIMO and beamforming processor to cause one or more first sub-arrays of the antenna array to form one or more first directional beams to allow communications on one or more backhaul links between the wireless communication node and one or more other wireless communication nodes , and to cause one or more second sub-arrays of the antenna array to form one or more second directional beams to allow communications on one or more access links between the wireless communication node and one or more User Equipment, UEs ; a backhaul processor to process the communications on said one or more backhaul links and configured to forward traffic received from a first other wireless communication node via a first backhaul beam to a second other wireless communication node via a second backhaul beam ; and an access processor to process the communications on said one or more access links, and configured to send data received from a UE to the backhaul processor that further sends the data to the first other wireless communication node through a baseband processor, wherein the access processor and the backhaul processor are implemented as two separate elements.
A computer-implemented method for body position detection, comprising the steps of: a) receiving accelerometer data from an accelerometer mounted on a user, wherein the received accelerometer data comprises three acceleration components including a first acceleration component in a first axis direction, a second acceleration component in a second axis direction substantially perpendicular to the first axis direction, and a third acceleration component in a third axis direction substantially perpendicular to a plane formed by the first and second axes; and wherein the first axis direction is parallel to a frontal axis of the user, the second axis direction is parallel to a longitudinal axis of the user, and the third axis direction is parallel to a sagittal axis of the user; and b) determining , based on the received accelerometer data, at least one body position based on a comparison between an absolute value of a projection of a gravity vector on a plane formed by two of the first, second, and third axes and an absolute value of an acceleration component in a remaining axis direction. a) receiving accelerometer data from an accelerometer mounted on a user, wherein the received accelerometer data comprises three acceleration components including a first acceleration component in a first axis direction, a second acceleration component in a second axis direction substantially perpendicular to the first axis direction, and a third acceleration component in a third axis direction substantially perpendicular to a plane formed by the first and second axes; and wherein the first axis direction is parallel to a frontal axis of the user, the second axis direction is parallel to a longitudinal axis of the user, and the third axis direction is parallel to a sagittal axis of the user; and wherein the received accelerometer data comprises three acceleration components including a first acceleration component in a first axis direction, a second acceleration component in a second axis direction substantially perpendicular to the first axis direction, and a third acceleration component in a third axis direction substantially perpendicular to a plane formed by the first and second axes; and wherein the first axis direction is parallel to a frontal axis of the user, the second axis direction is parallel to a longitudinal axis of the user, and the third axis direction is parallel to a sagittal axis of the user; and b) determining , based on the received accelerometer data, at least one body position based on a comparison between an absolute value of a projection of a gravity vector on a plane formed by two of the first, second, and third axes and an absolute value of an acceleration component in a remaining axis direction.
An item of furniture having a body , on which a flap is mounted so it is pivotable, whereby the flap is fixed to the body by means of two flap fittings , wherein the flap fitting is arranged on the body and comprises a main body , on which a supporting lever is rotatably mounted around a first axis of rotation , and the supporting lever is connected via a second axis of rotation to a flap using an attachment , and a control lever , which is connected via a third axis of rotation via the attachment to the flap , wherein the control lever is articulated via a fourth axis of rotation with a control element and the main body , and the flap is pivotable via a handle element , whereby only the supporting lever is fixed in a stationary manner to a housing by means of the first axis of rotation , while the control lever is articulated via the control element with the housing and the fourth axis of rotation moves relative to the housing during an opening or a closing movement, characterized in that an instantaneous center of rotation (M) of the flap is arranged in a closed position below the handle element and in a maximally open position above the handle element , where the instantaneous center of rotation (M) in the case of a plane motion of a rigid body is the point in space around which the body can be considered to be exclusively rotating at the moment, wherein in the case of the plane motion of the rigid body with a translatory motion and a rotational motion, there are combined into a pure rotational movement around the instantaneous center of rotation..
A method of facilitating offsite access to data on a server in an enterprise computer network, the method comprising: initiating , from an agent executing on a computer behind a firewall on an enterprise network, a hypertext transport protocol (HTTP) connection with a cloud-based gateway outside of the firewall; upgrading the HTTP connection to a WebSocket protocol connection; receiving , at the cloud-based gateway, a request from a mobile device for the data; reformatting , at the cloud-based gateway, the request from the mobile device into a request for the data over the WebSocket protocol; receiving , at the agent over the WebSocket protocol connection, the request for the data on the server from the cloud-based gateway; reformatting , at the agent, the request for the data into an HTTP request; sending , from the agent, the HTTP request to the server; receiving , at the agent, a response comprising the requested data to the HTTP request from the server; creating , at the agent, a WebSocket response comprising the requested data based on the response from the server; sending , from the agent over the WebSocket protocol connection to the gateway, the WebSocket response; receiving , at the cloud-based gateway, the WebSocket response from the agent; creating , at the cloud-based gateway, from the WebSocket response, a cloud-enabled response comprising the data; and sending the cloud-enabled response to the mobile device. initiating , from an agent executing on a computer behind a firewall on an enterprise network, a hypertext transport protocol (HTTP) connection with a cloud-based gateway outside of the firewall; upgrading the HTTP connection to a WebSocket protocol connection; receiving , at the cloud-based gateway, a request from a mobile device for the data; reformatting , at the cloud-based gateway, the request from the mobile device into a request for the data over the WebSocket protocol; receiving , at the agent over the WebSocket protocol connection, the request for the data on the server from the cloud-based gateway; reformatting , at the agent, the request for the data into an HTTP request; sending , from the agent, the HTTP request to the server; receiving , at the agent, a response comprising the requested data to the HTTP request from the server; creating , at the agent, a WebSocket response comprising the requested data based on the response from the server; sending , from the agent over the WebSocket protocol connection to the gateway, the WebSocket response; receiving , at the cloud-based gateway, the WebSocket response from the agent; creating , at the cloud-based gateway, from the WebSocket response, a cloud-enabled response comprising the data; and sending the cloud-enabled response to the mobile device.