mhurhangee/patent-ind-claim-en huggingface dataset:
A local network connection system comprising: a plurality of network interfaces, wherein each network interface is configured to be in communication with a network service provider, a plurality of routing tables comprising routes for routing network traffic from one of the plurality of network interface ports to a network service provider, wherein each of the plurality of network interfaces has at least one routing table associated with the network interface; and a network configuration system controller configured to: determine a status of each of the plurality of network interfaces; and assign a subscriber to one of the plurality of routing tables based, at least in part, on a routing policy and the status of each of the plurality of network interfaces, wherein the routing policy includes at least one criterion for determining an assignment of a subscriber to one of the plurality of routing tables, characterized in that the network configuration system controller is further configured to automatically balance the assignment of subscribers to the plurality of network service providers based, at least in part, on the routing policy. a plurality of network interfaces, wherein each network interface is configured to be in communication with a network service provider, a plurality of routing tables comprising routes for routing network traffic from one of the plurality of network interface ports to a network service provider, wherein each of the plurality of network interfaces has at least one routing table associated with the network interface; and a network configuration system controller configured to: determine a status of each of the plurality of network interfaces; and assign a subscriber to one of the plurality of routing tables based, at least in part, on a routing policy and the status of each of the plurality of network interfaces, wherein the routing policy includes at least one criterion for determining an assignment of a subscriber to one of the plurality of routing tables, characterized in that the network configuration system controller is further configured to automatically balance the assignment of subscribers to the plurality of network service providers based, at least in part, on the routing policy. determine a status of each of the plurality of network interfaces; and assign a subscriber to one of the plurality of routing tables based, at least in part, on a routing policy and the status of each of the plurality of network interfaces, wherein the routing policy includes at least one criterion for determining an assignment of a subscriber to one of the plurality of routing tables, characterized in that the network configuration system controller is further configured to automatically balance the assignment of subscribers to the plurality of network service providers based, at least in part, on the routing policy.
A system for capturing a rail and/or flange feature on a free flying spacecraft, comprising a capture mechanism including a two stage grasping tool including i) a quick grasp mechanism having opposite clamping jaws configured to be sprung closed, said quick grasp mechanism being mounted for movement in a housing , a trigger mechanism, said clamping jaws configured to be sprung quickly and sufficiently shut when triggered by said trigger mechanism such that the feature cannot escape from said clamping jaws thus achieving soft captures of the feature; and ii) a rigidizing mechanism, independently actuated from said quick grasp mechanism and configured to, upon completion of the soft capture of the feature,draw the quick grasp mechanism and the soft captured feature toward said housing until said feature abuts against a rigidisation surface located in said housing to rigidize the soft captured feature and spacecraft relative to said housing . i) a quick grasp mechanism having opposite clamping jaws configured to be sprung closed, said quick grasp mechanism being mounted for movement in a housing , a trigger mechanism, said clamping jaws configured to be sprung quickly and sufficiently shut when triggered by said trigger mechanism such that the feature cannot escape from said clamping jaws thus achieving soft captures of the feature; and ii) a rigidizing mechanism, independently actuated from said quick grasp mechanism and configured to, upon completion of the soft capture of the feature,draw the quick grasp mechanism and the soft captured feature toward said housing until said feature abuts against a rigidisation surface located in said housing to rigidize the soft captured feature and spacecraft relative to said housing .
An ultrasonic device , comprising: a transducer having a piezoelectric element therein; at least one acoustic matching layer composite on the piezoelectric element, said at least one acoustic matching layer composite comprising N acoustic matching layers, with a first of the N acoustic matching layers contacting the piezoelectric element and having an acoustic impedance equivalent to Z L1 , where N is a positive integer greater than zero and Z L1 is defined as: 0.75 Z p N + 1 Z g 1 / N + 2 ≤ Z L1 ≤ 1.25 Z p N + 1 Z g 1 / N + 2 , where Z p is the acoustic impedance of the piezoelectric element and Z g is the acoustic impedance of a compatible gas to which said ultrasonic device is exposed; and a protective layer on said at least one acoustic matching layer composite , on an opposite side to the side contacting the piezoelectric element, wherein said protective layer comprises polyethylene terephthalate, PET, and said protective layer has an acoustic impedance equivalent to Z p1 , where: 0.5 Z p Z g N + 1 1 / N + 2 ≤ Z p1 ≤ 1.5 Z p Z g N + 1 1 / N + 2 , wherein said protective layer comprises the PET layer metalized with aluminum, Al. a transducer having a piezoelectric element therein; at least one acoustic matching layer composite on the piezoelectric element, said at least one acoustic matching layer composite comprising N acoustic matching layers, with a first of the N acoustic matching layers contacting the piezoelectric element and having an acoustic impedance equivalent to Z L1 , where N is a positive integer greater than zero and Z L1 is defined as: 0.75 Z p N + 1 Z g 1 / N + 2 ≤ Z L1 ≤ 1.25 Z p N + 1 Z g 1 / N + 2 , where Z p is the acoustic impedance of the piezoelectric element and Z g is the acoustic impedance of a compatible gas to which said ultrasonic device is exposed; and a protective layer on said at least one acoustic matching layer composite , on an opposite side to the side contacting the piezoelectric element, wherein said protective layer comprises polyethylene terephthalate, PET, and said protective layer has an acoustic impedance equivalent to Z p1 , where: 0.5 Z p Z g N + 1 1 / N + 2 ≤ Z p1 ≤ 1.5 Z p Z g N + 1 1 / N + 2 , wherein said protective layer comprises the PET layer metalized with aluminum, Al.
Vehicle-side power circuit for supplying power in an electrically driven vehicle, wherein the power circuit comprises: - an external AC voltage terminal ; - at least one DC/AC converter having an AC voltage side ; and - an electrical machine having a plurality of windings, each of which has a first tapping (150a-c), wherein the electrical machine is connected to the AC voltage side of the DC/AC converter ; characterized by - a switching device connected to the plurality of windings, and - a signal shaping filter (F1) having a plurality of first capacitors , wherein the signal shaping filter (F1) is connected between the DC/AC converter and an external AC terminal , and wherein furthermore the switching device has a changeover switch, via which, in a filter state of the changeover switch corresponding to a first position of the changeover switch, the at least one first winding is optionally connected to the at least one first capacitor or, in a machine state of the changeover switch corresponding to a second position of the changeover switch, to the at least one second winding of the electrical machine and wherein the switching device therefore optionally: - interconnects the windings within the electrical machine ; or - connects the first tappings (255a-c) of the plurality of windings (250a-c) within the signal shaping filter (F1) to the plurality of first capacitors to form an at least third-order low-pass filter. - an external AC voltage terminal ; - at least one DC/AC converter having an AC voltage side ; and - an electrical machine having a plurality of windings, each of which has a first tapping (150a-c), wherein the electrical machine is connected to the AC voltage side of the DC/AC converter ; characterized by - a switching device connected to the plurality of windings, and - a signal shaping filter (F1) having a plurality of first capacitors , wherein the signal shaping filter (F1) is connected between the DC/AC converter and an external AC terminal , and wherein furthermore the switching device has a changeover switch, via which, in a filter state of the changeover switch corresponding to a first position of the changeover switch, the at least one first winding is optionally connected to the at least one first capacitor or, in a machine state of the changeover switch corresponding to a second position of the changeover switch, to the at least one second winding of the electrical machine and wherein the switching device therefore optionally: - interconnects the windings within the electrical machine ; or - connects the first tappings (255a-c) of the plurality of windings (250a-c) within the signal shaping filter (F1) to the plurality of first capacitors to form an at least third-order low-pass filter.
A toothbrush apparatus , comprising: a sensing module configured to detect at least one time period associated with use of the toothbrush apparatus and to detect one or more movements of the toothbrush apparatus, wherein the sensing module includes a clock and an accelerometer , and the at least one time period includes a date, a start time of day for using the toothbrush apparatus, and an end time of day for using the toothbrush apparatus; one or more memory locations ; one or more processors communicatively coupled to the sensing module and to the one or more memory locations , the one or more processors configured to determine one or more measurements based on the at least one time period and the one or more movements detected by the sensing module, and store tracked data including the at least one time period and the one or more determined measurements in the one or more memory locations ; one or more feedback modules configured to receive the tracked data stored in the one or more memory locations and to encode the tracked data into corresponding one or more feedback signals; and one or more data transfer modules configured to transmit the one or more feedback signals, wherein the one or more memory locations are adapted to store data pertaining to the user for a long period of time, e.g. 1 to 3 years, wherein the transfer module is configured to transfer data stored in the one or more memory locations to an external computing device . a sensing module configured to detect at least one time period associated with use of the toothbrush apparatus and to detect one or more movements of the toothbrush apparatus, wherein the sensing module includes a clock and an accelerometer , and the at least one time period includes a date, a start time of day for using the toothbrush apparatus, and an end time of day for using the toothbrush apparatus; one or more memory locations ; one or more processors communicatively coupled to the sensing module and to the one or more memory locations , the one or more processors configured to determine one or more measurements based on the at least one time period and the one or more movements detected by the sensing module, and store tracked data including the at least one time period and the one or more determined measurements in the one or more memory locations ; determine one or more measurements based on the at least one time period and the one or more movements detected by the sensing module, and store tracked data including the at least one time period and the one or more determined measurements in the one or more memory locations ; one or more feedback modules configured to receive the tracked data stored in the one or more memory locations and to encode the tracked data into corresponding one or more feedback signals; and one or more data transfer modules configured to transmit the one or more feedback signals, wherein the one or more memory locations are adapted to store data pertaining to the user for a long period of time, e.g. 1 to 3 years, wherein the transfer module is configured to transfer data stored in the one or more memory locations to an external computing device .
A sterile liquid formulation that has an absolute viscosity of 10 cP or less comprising: (a) an anti-sclerostin immunoglobulin at a concentration of at least 70 mg/mL; (b) a calcium salt at a concentration ranging from 5 mM to 20 mM and (c) a total concentration of acetate ranging from 10 mM to 90 mM, wherein the immunoglobulin comprises amino acid sequences of SEQ ID NO: 86 and SEQ ID NO: 84.
A flow governor assembly for use with a medicinal inhaler, the assembly comprising: a housing ; an air flow path defined by the housing and including an air inlet and an air outlet ; a flow governor positioned in the air flow path between the air inlet and the air outlet to govern air flow in the air flow path to a target governing volumetric flow rate, the flow governor configured to provide a dynamic resistance to air flow in the air flow path as a function of air pressure drop between an inlet and an outlet of the flow governor ; and a constriction in the air flow path , located between the air inlet and the air outlet , the constriction configured to provide a static resistance to air flow in the air flow path , wherein the constriction is positioned in at least one of (i) a location in the housing upstream of the flow governor and (ii) a location in the housing downstream of the flow governor . a housing ; an air flow path defined by the housing and including an air inlet and an air outlet ; a flow governor positioned in the air flow path between the air inlet and the air outlet to govern air flow in the air flow path to a target governing volumetric flow rate, the flow governor configured to provide a dynamic resistance to air flow in the air flow path as a function of air pressure drop between an inlet and an outlet of the flow governor ; and a constriction in the air flow path , located between the air inlet and the air outlet , the constriction configured to provide a static resistance to air flow in the air flow path , wherein the constriction is positioned in at least one of (i) a location in the housing upstream of the flow governor and (ii) a location in the housing downstream of the flow governor .
A machine for non-invasive treatment of the human body of the massage type, constructed using a vacuum pump and suction application heads , each connected to the pump by a hose and a regulation system comprising solenoid valves and an electronic regulator, characterized in that each of the application heads being controlled independently by two solenoid valves, a distribution manifold separating the suction flow into channels, a controlled vacuum regulator varying the vacuum for each of the channels according to a setpoint given by an electronic card, said channels bringing the vacuum each to two application heads via two hoses downstream of the regulator, an on/off solenoid valve (EV1) and an exhaust solenoid valve (EV3) being inserted in series on the line leading to each application head of said channels, each being controlled through management electronics by buttons placed on the attachment of the application head to the hose, configured so that three positions are possible for each of the application heads which is controlled independently, the first position being defined by the open on/off solenoid valve and the exhaust solenoid valve without exhaust for the application of the suction to the patient's body, the second being defined by the closed on/off solenoid valve, the detached head being able to be placed beside the patient or next to the table and to remain there, and the third being defined by the exhaust solenoid valve in position with exhaust, the practitioner manipulating the head and keeping the button controlling the exhaust solenoid valve pressed for the duration of the manipulation.
Method for manufacturing a circuit carrier , in particular, a lead frame or a printed circuit board track, for a semiconductor component , wherein at least one first copper layer or a first copper alloy layer with a first expansion coefficient and at least a second layer made of a second, low-stretch material (M2) with a second expansion coefficient, which is smaller than the first expansion coefficient, are bonded to each other, characterized in that , between the first copper layer or the first copper alloy layer and the second layer , at least one first bonding layer is made of a bonding material (VM) and the bonding material (VM) creates a bond, which withstands temperatures above the bonding temperature and comprises silver (Ag) and/or a silver alloy, wherein the bonding material is configured as a sintering material, wherein the first copper layer or the first copper alloy layer and the second layer are bonded to each other at a bonding temperature of 150 °C - 300 °C by means of a low-temperature sintering method.
An iron-based sintered sliding member consisting of: S: 0.2 to 3.24 mass%, Cu: 3 to 10 mass%, optionally, at least one of Ni and Mo: respectively 10 mass% or less, remainder: Fe and inevitable impurities, including 0.02 to 1.2 mass% of Mn, as an overall composition, wherein the metallic structure comprises a base in which sulfide particles mainly consisting of iron sulfide are segregated and uniformly dispersed in the base including inside of the particles of powder, and pores, wherein the base is constructed by a structure of ferrite or of ferrite in which a copper phase is dispersed, and wherein the sulfide particles are dispersed at a ratio of 0.8 to 15.0 vol% versus the base, and wherein in the sulfide particles, a total area of the sulfide particles having 10 μm or more of maximal particle diameter in a circle-equivalent diameter accounts 30 % or more of a total area of entire of the sulfide particles. S: 0.2 to 3.24 mass%, Cu: 3 to 10 mass%, optionally, at least one of Ni and Mo: respectively 10 mass% or less, remainder: Fe and inevitable impurities, including 0.02 to 1.2 mass% of Mn, as an overall composition, wherein the metallic structure comprises a base in which sulfide particles mainly consisting of iron sulfide are segregated and uniformly dispersed in the base including inside of the particles of powder, and pores, wherein the base is constructed by a structure of ferrite or of ferrite in which a copper phase is dispersed, and wherein the sulfide particles are dispersed at a ratio of 0.8 to 15.0 vol% versus the base, and wherein in the sulfide particles, a total area of the sulfide particles having 10 μm or more of maximal particle diameter in a circle-equivalent diameter accounts 30 % or more of a total area of entire of the sulfide particles.
A photovoltaic stringer for obtaining a cut ribbon for photovoltaic cells, the stringer comprising: a first clamping component for pulling a ribbon from a ribbon reel ; a second clamping component for coordinating with the first clamping component to stretch the ribbon ; and a cutting component for cutting the ribbon to obtain a cut ribbon; characterised by at least one first electrode and at least one second electrode for supplying an annealing current to the cut ribbon . a first clamping component for pulling a ribbon from a ribbon reel ; a second clamping component for coordinating with the first clamping component to stretch the ribbon ; and a cutting component for cutting the ribbon to obtain a cut ribbon; characterised by at least one first electrode and at least one second electrode for supplying an annealing current to the cut ribbon .
Vehicle headlamp, in particular motor vehicle headlamp, having a housing with an adjusting element accommodated in the housing and a measuring device configured to detect the position and/or orientation of the adjusting element , the adjusting element and the measuring device being connected to the housing , the measuring device being configured to emit an electrical signal dependent on the position and/or orientation of the adjusting element for driving an adjusting device for adjusting an optically relevant component of a vehicle headlamp, the adjusting element being connected to the measuring device via a transmission gear , wherein the transmission gear is adapted to transmit a rotational movement of the adjusting element to the measuring device , characterized in that the adjusting element comprises a toothed section of a shaft , which is in engagement with a gear wheel of the transmission gear for rotation of the gear wheel , wherein the gear wheel has a recess which interrupts the otherwise uniform toothing along the circumference of the gear wheel , wherein the gear wheel has a resilient element in the region of the recess , wherein the measuring device has a holding element for receiving the gear wheel and the holding element further comprises a limiting element , wherein the limiting element and the elastic element are arranged in such a way that in a position in which the toothed portion of the shaft is rotated into the recess and the gear wheel thus leaves an engagement position the resilient member is pressed against the limit member so that the resilient member exerts a restoring force on the gear wheel which presses the gear wheel back into the engagement position.
An auxiliary frame, in particular a front axle auxiliary frame, for a vehicle, in particular an electric vehicle, with a first shell element (2.1) and with a second shell element (2.2) which is rigidly connected to the first shell element (2.1) and, with the latter, defines a cavity , with a cross bridge for bearing a vehicle drive unit, in particular a vehicle drive motor or a gear unit, which cross bridge is connected by a screwed connection to the first shell element (2.1) and/or to the second shell element (2.2), and with a sleeve-like spacer element (14, 14', 14") for the inserting of a screw for vehicle body connection, wherein the spacer element (14, 14', 14") is arranged at one of its ends at a through-hole of the first shell element (2.1) and extends within the cavity in the direction of a through-hole of the second shell element (2.2), and wherein the spacer element (14, 14', 14") has a sleeve-like portion (14.2) for receiving a screw of the screwed connection of the cross bridge .
A method for using an interworking service between Converged IP Messaging, CPM, and Short Message Service, SMS, provided by an Internet Protocol Short Message Gateway, IP-SM-GW the method comprising: - sending, by a CPM User Equipment, UE, a chat session invitation toward an SMS enabled UE , and sending, by the CPM UE , a message containing data, within the chat session, towards the SMS UE , the chat session invitation and the message containing data being sent through the IP-SM-GW ; and - receiving, by the CPM UE , an invitation acknowledgement from the IP-SM-GW ; wherein, by sending the message containing data, the CPM UE initiates formatting of the message containing data into an SMS message by the IP-SM-GW and characterized in that by sending the chat session invitation, the CPM UE initiates assignment of a Mobile Station International Subscriber Directory Number, MSISDN, to the chat session and insertion of the MSISDN as a sender of the SMS message by the IP-SM-GW to ensure that an SMS response is sent back to the CPM UE through the IP-SM-GW . - sending, by a CPM User Equipment, UE, a chat session invitation toward an SMS enabled UE , and sending, by the CPM UE , a message containing data, within the chat session, towards the SMS UE , the chat session invitation and the message containing data being sent through the IP-SM-GW ; and - receiving, by the CPM UE , an invitation acknowledgement from the IP-SM-GW ;