mhurhangee/patent-ind-claim-en huggingface dataset:
A load control system for controlling an electrical load , the load control system comprising: a mobile device configured to store occupant control parameters and to wirelessly receive beacon signals from a beacon transmitting device , said beacon signals comprising a unique identifier identifying a location of the beacon transmitting device ; the mobile device further configured to wirelessly transmit the unique identifier and the occupant control parameters to a system controller , wherein the occupant control parameters comprise one or more of the following: predetermined or preset settings, biometric data for the occupant measured by the mobile device, user input data received by the mobile device, and an environmental characteristic measured by the mobile device; a system controller configured to receive from the mobile device the unique identifier; to receive from the mobile device the occupant control parameters; to determine that the mobile device is near the electrical load based on the unique identifier; to determine a command to control the electrical load according to the location of the mobile device and the occupant control parameters; and to transmit a message to a load control device including the command to control the electrical load ; and the load control device configured to receive the message including the command from the system controller ; and to control a level at which the electrical load is controlled in response to the command. a mobile device configured to store occupant control parameters and to wirelessly receive beacon signals from a beacon transmitting device , said beacon signals comprising a unique identifier identifying a location of the beacon transmitting device ; the mobile device further configured to wirelessly transmit the unique identifier and the occupant control parameters to a system controller , wherein the occupant control parameters comprise one or more of the following: predetermined or preset settings, biometric data for the occupant measured by the mobile device, user input data received by the mobile device, and an environmental characteristic measured by the mobile device; a system controller configured to receive from the mobile device the unique identifier; to receive from the mobile device the occupant control parameters; to determine that the mobile device is near the electrical load based on the unique identifier; to determine a command to control the electrical load according to the location of the mobile device and the occupant control parameters; and to transmit a message to a load control device including the command to control the electrical load ; and the load control device configured to receive the message including the command from the system controller ; and to control a level at which the electrical load is controlled in response to the command.
Process for tanning, pretanning or retanning leather comprising the steps of: a) providing leather stock, tanned or pre-tanned leather b) treating the leather or leather stock of step a) with an aqueous composition and/or a powder composition comprising at least one carboxymethyl cellulose and/or its salts (CMC), whereby the CMC has a weight average molecular weight MW of from 1000 to 500000 g/mol and a degree of substitution DS of from 0,3 to 3,0, and c) drying. a) providing leather stock, tanned or pre-tanned leather b) treating the leather or leather stock of step a) with an aqueous composition and/or a powder composition comprising at least one carboxymethyl cellulose and/or its salts (CMC), whereby the CMC has a weight average molecular weight MW of from 1000 to 500000 g/mol and a degree of substitution DS of from 0,3 to 3,0, and c) drying.
Electrical low-voltage power distribution equipment comprising the functional units: - at least one set of busbars ; - at least one outlet with a fuse-holder base ; - at least one auxiliary line connection ; and - at least one auxiliary and measuring circuit outlet said functional units are incorporated in independent compartments, wherein the at least one set of busbars is at least partially encapsulated in at least one insulation module made of insulating material, the busbars being insulated from one another and from the remaining components of the electrical power distribution equipment , preventing accidental access to live parts, and wherein the at least one auxiliary line connection is for connecting an external auxiliary power source and is partially encapsulated in the insulation module , preventing accidental access to live parts. - at least one set of busbars ; - at least one outlet with a fuse-holder base ; - at least one auxiliary line connection ; and - at least one auxiliary and measuring circuit outlet said functional units are incorporated in independent compartments, wherein the at least one set of busbars is at least partially encapsulated in at least one insulation module made of insulating material, the busbars being insulated from one another and from the remaining components of the electrical power distribution equipment , preventing accidental access to live parts, and wherein the at least one auxiliary line connection is for connecting an external auxiliary power source and is partially encapsulated in the insulation module , preventing accidental access to live parts.
A system, comprising: a plurality of slave processors ; and a master processor configured to communicate with the plurality of slave processors over a digital communication link when operating in a first mode, and over an analog communication link when operating in a second mode, characterized in that the master processor is further configured to change between said first and second modes based on detection of a fault condition on the digital communication link; wherein the master processor operates in the first mode for the plurality of slave processors by default, and in response to the fault condition on the digital communication link for a given one of the slave processors , initiates operation in the second mode for at least the given one of the slave processors and ceases operation in the first mode for at least the given one of the slave processors . a plurality of slave processors ; and a master processor configured to communicate with the plurality of slave processors over a digital communication link when operating in a first mode, and over an analog communication link when operating in a second mode, characterized in that the master processor is further configured to change between said first and second modes based on detection of a fault condition on the digital communication link; wherein the master processor operates in the first mode for the plurality of slave processors by default, and in response to the fault condition on the digital communication link for a given one of the slave processors , initiates operation in the second mode for at least the given one of the slave processors and ceases operation in the first mode for at least the given one of the slave processors .
A liquid-jet laser machine tool having a machining head for coupling a laser beam into a liquid jet , wherein the machining head has a nozzle having a nozzle opening for generating the liquid jet , and the laser beam is capable of being focused by a focusing installation into an port of the nozzle opening for the laser beam to be coupled into the liquid jet , and wherein the liquid-jet laser machine tool comprises a two-dimensional image sensor for a region of the nozzle around the port of the nozzle opening to be depicted, characterized in that the laser beam is capable of being defocused about a port of the nozzle opening such that laser light from the laser beam is reflected from the region of the nozzle around the port of the nozzle opening toward the image sensor so that a depiction of the region of the nozzle around the port of the nozzle opening is capable of being captured by the image sensor , in which depiction the port of the nozzle opening is identifiable, wherein the focusing installation comprises a collimation unit for the laser beam to be collimated to form a parallel or approximately parallel beam, and a motionless static optical unit for the parallel or approximately parallel beam to be focused onto a focal point and the entire collimation unit , or individual optical elements of the collimation unit , is/are movable, for the collimation of the laser beam to be modified and, on account thereof, for a distance of the focal point of the laser beam from the optical unit to be modified.
A method of forming a photonic device, the method comprising: forming spaced trench isolation regions in an upper surface of a semiconductor substrate ; filling the spaced trench isolation regions with a dielectric material; forming at least one material over the substrate; forming an opening in the at least one material at a location over the substrate between the spaced trench isolation regions , the opening extending to the upper surface of the substrate and laterally over side edge portions of the spaced trench isolation regions ; and epitaxially growing a photonic device on the upper surface of the semiconductor substrate within the opening and over and in contact with side edge portions of the spaced trench isolation regions . forming spaced trench isolation regions in an upper surface of a semiconductor substrate ; filling the spaced trench isolation regions with a dielectric material; forming at least one material over the substrate; forming an opening in the at least one material at a location over the substrate between the spaced trench isolation regions , the opening extending to the upper surface of the substrate and laterally over side edge portions of the spaced trench isolation regions ; and epitaxially growing a photonic device on the upper surface of the semiconductor substrate within the opening and over and in contact with side edge portions of the spaced trench isolation regions .
A channel prediction method, wherein the method comprises: obtaining (S401) a first channel coefficient sequence in a first time period, wherein the first channel coefficient sequence comprises a plurality of complex values of a channel coefficient; and wherein the method further comprises determining (S402) a prediction value of the channel coefficient in a second time period based on the first channel coefficient sequence and a preset vocabulary of channel changes, wherein the vocabulary of channel changes comprises a mapping relationship between channel change value indices and change values of the channel coefficient, and the second time period is later than the first time period. obtaining (S401) a first channel coefficient sequence in a first time period, wherein the first channel coefficient sequence comprises a plurality of complex values of a channel coefficient; and wherein the method further comprises determining (S402) a prediction value of the channel coefficient in a second time period based on the first channel coefficient sequence and a preset vocabulary of channel changes, wherein the vocabulary of channel changes comprises a mapping relationship between channel change value indices and change values of the channel coefficient, and the second time period is later than the first time period.
A heat exchange system for a magnetic annealing tool comprising: (a) a process chamber to house a workpiece stack to be processed; (b) an element chamber at least partially surrounding the process chamber , the element chamber including an electrical resistance heating element therein; (c) a cooling chamber disposed to at least partially surround the element chamber ; and (d) means for generating a magnetic field disposed on the outer periphery of the cooling chamber ; characterised in that (e) the electrical resistance heating element in the element chamber is divided axially into three different independently controlled zone heaters, a centre zone heater lined up with the workpiece stack , an upper end zone heater provided above the centre zone heater and a lower end zone heater provided below the centre zone heater ; and the heat exchange system further comprises (f) means for drawing a vacuum in fluid communication with the element chamber in order to apply a vacuum to the element chamber so as to decrease gas conduction within the element chamber ; and (g) one or more gas sources in fluid communication with the element chamber and a means to introduce said gas into the element chamber to increase gas conduction within the element chamber . (a) a process chamber to house a workpiece stack to be processed; (b) an element chamber at least partially surrounding the process chamber , the element chamber including an electrical resistance heating element therein; (c) a cooling chamber disposed to at least partially surround the element chamber ; and (d) means for generating a magnetic field disposed on the outer periphery of the cooling chamber ; characterised in that (e) the electrical resistance heating element in the element chamber is divided axially into three different independently controlled zone heaters, a centre zone heater lined up with the workpiece stack , an upper end zone heater provided above the centre zone heater and a lower end zone heater provided below the centre zone heater ; and the heat exchange system further comprises (f) means for drawing a vacuum in fluid communication with the element chamber in order to apply a vacuum to the element chamber so as to decrease gas conduction within the element chamber ; and (g) one or more gas sources in fluid communication with the element chamber and a means to introduce said gas into the element chamber to increase gas conduction within the element chamber .
Method for executing exchange of data flows between two terminals, a server terminal providing data to a client terminal , by way of a multipath link formed of a plurality of transmission channels , said data flow containing data transmitted from the server terminal to the client terminal and also acknowledgement information transmitted in the same flow from the client terminal to the server terminal , said method implementing an interface module dedicated to transmitting the data forming said data flow, executing separation of said data flow into a plurality of secondary data flows and transiting said secondary data flows via said plurality of transmission channels forming the multipath link , and also an interface module dedicated to receiving said data, executing reception of the data forming the secondary data flows transmitted via said plurality of channels and reassembling said secondary data flows into a single data flow; characterized in that at least one of the channels of said multipath link is a unidirectional channel without any return path, the interface modules furthermore being configured to provide routing of the acknowledgement information of the data packets forming a secondary data flow transiting via a unidirectional channel by associating them with the acknowledgement information of the data packets forming a secondary data flow transiting via a bidirectional channel.
A measuring arrangement, intended and configured for the inductive analysis of metal objects (1.6), comprising - a coil arrangement comprising at least one exciter coil (1.1), which is excitable by means of an excitation voltage, and at least one receiver coil (1.2), which are inductively coupled to one another, - a foot point resistor (2.3) at a foot point of the exciter coil (1.1), - electronics equipment for energising the exciter coil (1.1) and - an evaluation unit for evaluating an output signal (5.4) of the measuring arrangement, which output signal is detected by the receiver coil (1.2), - means for generating a ramped voltage signal of the excitation voltage (2.5) as a presetting for a ramped current through the exciter coil, - a closed-loop control device comprising an operational amplifier (3.1) or comparator, to the first input (3.3) of which the excitation voltage (2.5) is applied, and to the second input of which the voltage (2.4) at the foot point resistor (2.3) of the exciter coil (1.1) is applied and the output of which feeds the supply terminal (2.2) of the exciter coil (1.1), - wherein the closed-loop control device is configured to control the current at the foot point of the exciter coil (1.1) such that a ramped excitation current is produced, which is modulatable in time by the metal object (1.6) in changing the excitation voltage, - wherein the evaluation unit is configured to evaluate the output signal (5.4) of the measuring arrangement for analysing the metal object. - a coil arrangement comprising at least one exciter coil (1.1), which is excitable by means of an excitation voltage, and at least one receiver coil (1.2), which are inductively coupled to one another, - a foot point resistor (2.3) at a foot point of the exciter coil (1.1), - electronics equipment for energising the exciter coil (1.1) and - an evaluation unit for evaluating an output signal (5.4) of the measuring arrangement, which output signal is detected by the receiver coil (1.2), - means for generating a ramped voltage signal of the excitation voltage (2.5) as a presetting for a ramped current through the exciter coil, - a closed-loop control device comprising an operational amplifier (3.1) or comparator, to the first input (3.3) of which the excitation voltage (2.5) is applied, and to the second input of which the voltage (2.4) at the foot point resistor (2.3) of the exciter coil (1.1) is applied and the output of which feeds the supply terminal (2.2) of the exciter coil (1.1), - wherein the closed-loop control device is configured to control the current at the foot point of the exciter coil (1.1) such that a ramped excitation current is produced, which is modulatable in time by the metal object (1.6) in changing the excitation voltage, - wherein the evaluation unit is configured to evaluate the output signal (5.4) of the measuring arrangement for analysing the metal object.
A hybrid access gateway, HAG, apparatus for natively bridged communication in a communication network, the HAG apparatus comprising: - an upstream interface configured for receiving downlink Open Systems Interconnection, OSI, layer 2 traffic in said communication network; - at least one downstream cellular coupling interface configured to be communicatively coupled to a user equipment, UE, wherein the UE is configured to connect to a cellular access network and be identified by a first OSI layer 2 MAC address, wherein the first OSI layer 2 address is derivable from a temporary identifier for said UE, wherein the UE is also configured to connect to a non-cellular access network of said communication network and be identified by a second OSI layer 2 address; - an inspection module configured for inspecting an OSI layer 2 header of said received OSI layer 2 traffic; and - a direction module configured for, based on said inspected OSI layer 2 header, directing said received OSI layer 2 traffic to said UE via said at least one downstream cellular coupling interface, wherein said direction module is configured for directing said received OSI layer 2 traffic to the first OSI layer 2 MAC address and optionally also to the second OSI layer 2 address according to a distribution algorithm which is configured to prevent out-of-sequence delivery of said received OSI layer 2 traffic at said UE. - an upstream interface configured for receiving downlink Open Systems Interconnection, OSI, layer 2 traffic in said communication network; - at least one downstream cellular coupling interface configured to be communicatively coupled to a user equipment, UE, wherein the UE is configured to connect to a cellular access network and be identified by a first OSI layer 2 MAC address, wherein the first OSI layer 2 address is derivable from a temporary identifier for said UE, wherein the UE is also configured to connect to a non-cellular access network of said communication network and be identified by a second OSI layer 2 address; - an inspection module configured for inspecting an OSI layer 2 header of said received OSI layer 2 traffic; and - a direction module configured for, based on said inspected OSI layer 2 header, directing said received OSI layer 2 traffic to said UE via said at least one downstream cellular coupling interface, wherein said direction module is configured for directing said received OSI layer 2 traffic to the first OSI layer 2 MAC address and optionally also to the second OSI layer 2 address according to a distribution algorithm which is configured to prevent out-of-sequence delivery of said received OSI layer 2 traffic at said UE.
An electronic contactor having an auxiliary relay , which has a first auxiliary movable contact configured to contact or to be separated from a first auxiliary fixed contact by movement of a cross bar, characterized in that the electronic contactor comprises: a frame having the first auxiliary movable contact and the first auxiliary fixed contact ; a movable member configured to move in the frame , and having a magnet member at one side thereof; a conducting member formed as a printed circuit board, PCB, and disposed in the frame , and having a first switch unit and a second switch unit which are conducted as the magnet member moves; a first terminal connected to the first switch unit and to a second auxiliary fixed contact of the frame , and configured to apply a current according to whether the first switch unit has been conducted or not; and a second terminal connected to the second switch unit and to a third auxiliary fixed contact of the frame , and configured to apply a current according to whether the second switch unit has been conducted or not, wherein the first switch unit and the second switch unit are reed switches , wherein the first terminal and the second terminal are fixed to have a predetermined inclination angle, and wherein the first auxiliary fixed contact , the second auxiliary fixed contact and the third auxiliary fixed contact are coplanar and disposed in parallel on a side of the frame . a frame having the first auxiliary movable contact and the first auxiliary fixed contact ; a movable member configured to move in the frame , and having a magnet member at one side thereof; a conducting member formed as a printed circuit board, PCB, and disposed in the frame , and having a first switch unit and a second switch unit which are conducted as the magnet member moves; a first terminal connected to the first switch unit and to a second auxiliary fixed contact of the frame , and configured to apply a current according to whether the first switch unit has been conducted or not; and a second terminal connected to the second switch unit and to a third auxiliary fixed contact of the frame , and configured to apply a current according to whether the second switch unit has been conducted or not, wherein the first switch unit and the second switch unit are reed switches , wherein the first terminal and the second terminal are fixed to have a predetermined inclination angle, and wherein the first auxiliary fixed contact , the second auxiliary fixed contact and the third auxiliary fixed contact are coplanar and disposed in parallel on a side of the frame .