mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating a network of luminaires, wherein the network of luminaires comprises a plurality of luminaires, in particular street lights, a plurality of control modules and a server , wherein each of said plurality of control modules is assigned to a respective one of said plurality of luminaires and comprises: - a long-range communication module, - a short-range communication module, - a geocoordinates module, - a controller , and - a control output for controlling a driver of the respective luminaire, the control output being adapted to output control signals for the driver of a luminous means of the respective luminaire, wherein the respective long-range communication module of each control module is adapted to reach said server , the method including the step of dividing the plurality of control modules into at least one group (A, B) of control modules, characterized in that said division into at least one group (A,B) of control modules is done in order to set up the network on the basis of environmental, luminaire and/or control module information provided by the control modules, characterized in that the method further comprises the following steps: • selecting by the server one of the control modules in each of said at least one group (A, B) of control modules as the group controller , • forming a short-range network of control modules within each of said at least one group (A, B) via the respective short-range communication modules, the control modules in each of said at least one group (A, B) communicating by means of their short-range communication modules, wherein in the normal operating state of the network of luminaires, only each group controller transmits via the respective long-range communication module to the server , at least one of its own environmental, luminaire and control module information, and at least one of the environmental, luminaire and control module information received from the control modules of its respective group via their short-range communication module, wherein said normal operating state is a control mode of the network of luminaires, in which each of said plurality of control modules is assigned to a respective one of said at least one group (A, B) of control modules and perform the control of the respective luminaire, and wherein, after successfully setting up the short-range network inside a respective one of the at least one group (A, B) of control modules, the respective group controller reports the successful set up to the server . - a long-range communication module, - a short-range communication module, - a geocoordinates module, - a controller , and - a control output for controlling a driver of the respective luminaire, • selecting by the server one of the control modules in each of said at least one group (A, B) of control modules as the group controller , • forming a short-range network of control modules within each of said at least one group (A, B) via the respective short-range communication modules,
A method of processing transactions associated with a command in a storage system having a plurality of storage devices, comprising: allocating partitions in the storage devices to first and second authorities, wherein an authority is an owner of data and metadata; receiving , at the first authority of the storage system, a command relating to user data, wherein a command includes one or more transactions; maintaining a pre-transaction state of the system; sending a transaction of the command, from the first authority to the second authority of the storage system, wherein a token is associated with the transaction and indicates that the authority executing the transaction has permission to perform the transaction and is permitted to write data to an allocated partition of a storage device; writing data in accordance with the transaction as permitted by the token into a partition that is allocated to the second authority in a storage device of the storage system; and transitioning the system to a post-transaction state of the system when the transaction is complete. allocating partitions in the storage devices to first and second authorities, wherein an authority is an owner of data and metadata; receiving , at the first authority of the storage system, a command relating to user data, wherein a command includes one or more transactions; maintaining a pre-transaction state of the system; sending a transaction of the command, from the first authority to the second authority of the storage system, wherein a token is associated with the transaction and indicates that the authority executing the transaction has permission to perform the transaction and is permitted to write data to an allocated partition of a storage device; writing data in accordance with the transaction as permitted by the token into a partition that is allocated to the second authority in a storage device of the storage system; and transitioning the system to a post-transaction state of the system when the transaction is complete.
A pharmaceutical formulation for use in inducing weight loss in a pre-obese, obese, or morbidly obese patient; reducing body fat in a pre-obese, obese, or morbidly obese patient; reducing food intake in a pre-obese, obese, or morbidly obese patient; improving glucose homeostasis in a pre-obese, obese, or morbidly obese patient; preventing an increase in the body mass index of a normal, pre-obese, obese, or morbidly obese patient, or combinations thereof comprising a compound selected from the following compounds: and pharmaceutically acceptable salts thereof.
A computer-implemented method for de-identifying data in a dataset containing personally identifiable information, comprising the steps of: creating a list of quasi-identifying fields in a data subject profile in the dataset containing personally identifiable information; creating, by respectively selecting random simulated quasi-identifying values for each quasi-identifying field in the list, a population distribution that includes the simulated quasi-identifying values in the quasi-identifying fields and which approximates a distribution of the dataset; retrieving the created population distribution that includes the simulated quasi-identifying values in the quasi-identifying fields from a storage device; determining a candidate de-identification solution, applying the solution to the simulated quasi-identifying values; calculating a disclosure risk measurement of re-identification of the personally identifiable information for one or more individuals or entities represented in the dataset using the de-identified simulated quasi-identifying values for the quasi-identifying fields in the list; comparing the disclosure risk measurement to a risk threshold; if the risk threshold is met then de-identifying the dataset with the solution and providing the de-identified dataset to a user; if the risk threshold is not met then repeating the determining, applying, calculating and comparing steps until the risk threshold is met. creating a list of quasi-identifying fields in a data subject profile in the dataset containing personally identifiable information; creating, by respectively selecting random simulated quasi-identifying values for each quasi-identifying field in the list, a population distribution that includes the simulated quasi-identifying values in the quasi-identifying fields and which approximates a distribution of the dataset; retrieving the created population distribution that includes the simulated quasi-identifying values in the quasi-identifying fields from a storage device; determining a candidate de-identification solution, applying the solution to the simulated quasi-identifying values; calculating a disclosure risk measurement of re-identification of the personally identifiable information for one or more individuals or entities represented in the dataset using the de-identified simulated quasi-identifying values for the quasi-identifying fields in the list; comparing the disclosure risk measurement to a risk threshold; if the risk threshold is met then de-identifying the dataset with the solution and providing the de-identified dataset to a user; if the risk threshold is not met then repeating the determining, applying, calculating and comparing steps until the risk threshold is met.
A system for bronchial denervation, the system comprising: a medical device including: an elongate body having a distal portion , a proximal portion opposite the distal portion, and a longitudinal axis ; a treatment element at the distal portion of the elongate body ; and at least one recording electrode configured to record electromyograms; an electromyography system in communication with the at least one recording electrode ; and a control unit in communication with the medical device, wherein the at least one recording electrode includes a first recording electrode located distal to the treatment element and a second recording electrode located proximal to the treatment element, the electromyography system including processing circuitry configured to: receive electromyogram signals from the first recording electrode and the second recording electrode , characterized in that the processing circuitry is further configured to: calculate a difference between a first electromyogram signal received from the first recording electrode and a second electromyogram signal received from the second recording electrode to generate a recorded electromyogram; and compare the recorded electromyogram to a reference electromyogram to determine whether denervation has occurred in the at least a portion of bronchial tissue based on the comparison. a medical device including: an elongate body having a distal portion , a proximal portion opposite the distal portion, and a longitudinal axis ; a treatment element at the distal portion of the elongate body ; and at least one recording electrode configured to record electromyograms; an elongate body having a distal portion , a proximal portion opposite the distal portion, and a longitudinal axis ; a treatment element at the distal portion of the elongate body ; and at least one recording electrode configured to record electromyograms; an electromyography system in communication with the at least one recording electrode ; and a control unit in communication with the medical device, wherein the at least one recording electrode includes a first recording electrode located distal to the treatment element and a second recording electrode located proximal to the treatment element, the electromyography system including processing circuitry configured to: receive electromyogram signals from the first recording electrode and the second recording electrode ,
A structure for sealing a cylinder block and a cylinder head , wherein a cylindrical part protrudes from an upper surface of the cylinder block including a cylinder bore so as to enclose the cylinder bore , and a circular recess having an inner diameter (d2) greater than an outer diameter (d1) of the cylindrical part is formed on a lower surface of the cylinder head that faces the upper surface of the cylinder block , by mounting the cylinder head on the upper surface of the cylinder block , the cylindrical part is accommodated in the circular recess , and a gasket including an annular rubber elastic member is installed in a space (S) formed between the outer side of the cylindrical part and the inner side of the circular recess , and the gasket is compressed in a radial direction between an outer peripheral surface of the cylindrical part and an inner peripheral surface of the circular recess , and seals the periphery of the cylinder bore between the cylinder block and the cylinder head , characterized in that an upper end surface of the cylindrical part contacts an inner bottom surface of the circular recess .
An electronic system (10; 110) comprising an electromechanical microsystem (12; 112) and a hermetic box (14; 114) under vacuum encapsulating said electromechanical microsystem (12; 112); the box (14; 114) including a fastening plane (40; 140); the electromechanical microsystem (12; 112) including: - a sensitive part ; and - at least two beams connecting the sensitive part to the fastening plane (40; 140); the system (10; 110) being characterized : - in that each beam being made from an at least partially conductive material; - in that the beams are thermally coupled to the sensitive part and are electrically coupled to one another; and - in that it further includes a thermal regulator (16; 116) of the electromechanical microsystem (12; 112) including an electrical circuit (61; 161) including at least two ends (69A,...,69D) connected to the beams , and a circuit controller able to generate an electrical current in the electrical circuit (61; 161) to modify the temperature of the sensitive part . the box (14; 114) including a fastening plane (40; 140); the electromechanical microsystem (12; 112) including: - a sensitive part ; and - at least two beams connecting the sensitive part to the fastening plane (40; 140); - a sensitive part ; and - at least two beams connecting the sensitive part to the fastening plane (40; 140); - in that each beam being made from an at least partially conductive material; - in that the beams are thermally coupled to the sensitive part and are electrically coupled to one another; and - in that it further includes a thermal regulator (16; 116) of the electromechanical microsystem (12; 112) including an electrical circuit (61; 161) including at least two ends (69A,...,69D) connected to the beams , and a circuit controller able to generate an electrical current in the electrical circuit (61; 161) to modify the temperature of the sensitive part .
Method for manipulating, in a microfluidic system, microdroplets including samples , comprising the steps of: i) forming, in an oil, microdroplets of an aqueous solution containing a sample where the aqueous solution containing a sample comprises a gelling agent, ii) trapping the microdroplets by means of surface tension traps pre-arranged in a trapping zone , and (iii) gelling at least a portion of the trapped microdroplets , where the steps of the method are carried out in a single microfluidic system. i) forming, in an oil, microdroplets of an aqueous solution containing a sample where the aqueous solution containing a sample comprises a gelling agent, ii) trapping the microdroplets by means of surface tension traps pre-arranged in a trapping zone , and (iii) gelling at least a portion of the trapped microdroplets ,
A method for transmitting multicast data over a public communication network by a first network appliance , the method comprising: receiving at the first network appliance , a request from a second network appliance to receive a multicast data transmission; transmitting the multicast data transmission from a transmitting computing device to a virtual interface of the first network appliance ; encapsulating the multicast data transmission by the first network appliance into a virtual network overlay transmission; transmitting the virtual network overlay transmission from the first network appliance over the public communication network to the second network appliance ; and transmitting the multicast data transmission by the second network appliance to a receiving computing device ; wherein the first network appliance is designated as a rendezvous point for the multicast data transmission, the first network appliance and the second network appliance are in communication with an orchestrator device over a virtual overlay network overlaying the public communication network and wherein the orchestrator device is further configured to create one or more virtual paths in the virtual overlay network automatically. receiving at the first network appliance , a request from a second network appliance to receive a multicast data transmission; transmitting the multicast data transmission from a transmitting computing device to a virtual interface of the first network appliance ; encapsulating the multicast data transmission by the first network appliance into a virtual network overlay transmission; transmitting the virtual network overlay transmission from the first network appliance over the public communication network to the second network appliance ; and transmitting the multicast data transmission by the second network appliance to a receiving computing device ; wherein the first network appliance is designated as a rendezvous point for the multicast data transmission, the first network appliance and the second network appliance are in communication with an orchestrator device over a virtual overlay network overlaying the public communication network and wherein the orchestrator device is further configured to create one or more virtual paths in the virtual overlay network automatically.
- Tyre having a radial carcass reinforcement , comprising a crown reinforcement which is itself capped radially by a tread that is joined to two beads via two sidewalls, said tread having grooves that form a tread pattern, having a height between the bottom of the tread pattern and the tread surface, said tread being made up, at least locally, of at least three layers of elastomeric compounds that are radially superposed over the tread pattern height of the tread, characterized in that a first layer forming the radially outer portion of the tread is made up of a first elastomeric compound having a maximum value of tan(δ), denoted tan(δ)max, measured according to Standard ASTM D 5992-96, at a frequency of 10 Hz, at a temperature of 60°C, of strictly less than 0.150, in that a second layer of elastomeric compound that is radially further towards the inside is made up of a second elastomeric compound, in that at least one third layer of elastomeric compound that is radially in contact with two layers made up of said first elastomeric compound and/or said second elastomeric compound is made up of a third elastomeric compound having a Vickers hardness, measured with a microhardness measuring system according to the conditions defined in the description, at least 12 times greater than that of the first elastomeric compound and at least 12 times greater than that of the second elastomeric compound, in that, in a meridian section of the tyre, in a defined region between the axially outermost ends of the third layer, the ratio of the area of the third elastomeric compound to the sum of the areas of said at least three layers of elastomeric compound is between 10% and 30%, and in that, in a meridian section of the tyre, the barycentre of the third elastomeric compound is situated radially between 30% and 70% of the tread pattern height of the tread from the bottom of the tread pattern.
A non-aqueous electrolyte solution for a lithium secondary battery, the non-aqueous electrolyte solution comprising: an ionizable lithium salt; an organic solvent; and a compound represented by Formula 1, wherein the organic solvent comprises at least one solvent selected from the group consisting of an ether-based solvent, an ester-based solvent and an amide-based solvent, and wherein the compound represented by Formula 1 is included in an amount of 0.5 wt% to 40 wt% based on a total amount of the non-aqueous electrolyte solution: wherein, in Formula 1, R 1 to R 4 are each independently an alkyl group having 1 to 6 carbon atoms, an alkenyl group having 2 to 6 carbon atoms, or -(CH 2 ) n -R 5 , wherein R 5 is an aryl group having 6 to 18 carbon atoms, or an aryl group having 6 to 18 carbon atoms which is substituted with an alkyl group having 1 to 2 carbon atoms, and n is an integer of 0 to 2. an ionizable lithium salt; an organic solvent; and a compound represented by Formula 1, wherein the organic solvent comprises at least one solvent selected from the group consisting of an ether-based solvent, an ester-based solvent and an amide-based solvent, and wherein the compound represented by Formula 1 is included in an amount of 0.5 wt% to 40 wt% based on a total amount of the non-aqueous electrolyte solution: wherein, in Formula 1, R 1 to R 4 are each independently an alkyl group having 1 to 6 carbon atoms, an alkenyl group having 2 to 6 carbon atoms, or -(CH 2 ) n -R 5 , wherein R 5 is an aryl group having 6 to 18 carbon atoms, or an aryl group having 6 to 18 carbon atoms which is substituted with an alkyl group having 1 to 2 carbon atoms, and n is an integer of 0 to 2.
A method of reconfiguring a garniture bed in a wrapping mechanism for forming a substantially cylindrical wrapped element by wrapping a core within a web material , the wrapping mechanism comprising a reconfigurable garniture bed having an elongate formation channel for supporting a conveying belt extending along the length of the elongate formation channel for entraining the web material , and wherein the elongate formation channel has an elongate open side, wherein the garniture bed comprises a base member and a replaceable formation channel liner provided with the elongate formation channel and detachably connected to the base member , and the method comprises detaching and replacing the formation channel liner , and characterised in that the replaceable formation channel liner is replaced with another replaceable formation channel liner that is shaped to compensate for the worn conveying belt . wherein the garniture bed comprises a base member and a replaceable formation channel liner provided with the elongate formation channel and detachably connected to the base member , and the method comprises detaching and replacing the formation channel liner , and characterised in that the replaceable formation channel liner is replaced with another replaceable formation channel liner that is shaped to compensate for the worn conveying belt .
A metering unit for granular material, the metering unit comprising at least - a housing with an inner cover surface in approximately the form of a circular path and/or of a circle segment; - at least one inlet opening for granular material being conveyed; - a conveying device rotating concentrically to the housing and/or to the inner cover surface and having one opening or a plurality of openings and/or shoulders at its outer area and/or at its front face for the separation of the granular material being conveyed; - and at least one outlet opening approximately tangentially connecting to the inner cover surface ; characterised in that the inner cover surface is at least in sections formed by a wear insert , wherein - the wear insert starts in the area in which the circular path of the inner cover surface takes an upward slope; - the wear insert extends across a section acting as separation area; and - the wear insert ends in the area of the outlet opening. - a housing with an inner cover surface in approximately the form of a circular path and/or of a circle segment; - at least one inlet opening for granular material being conveyed; - a conveying device rotating concentrically to the housing and/or to the inner cover surface and having one opening or a plurality of openings and/or shoulders at its outer area and/or at its front face for the separation of the granular material being conveyed; - and at least one outlet opening approximately tangentially connecting to the inner cover surface ; characterised in that the inner cover surface is at least in sections formed by a wear insert , wherein - the wear insert starts in the area in which the circular path of the inner cover surface takes an upward slope; - the wear insert extends across a section acting as separation area; and - the wear insert ends in the area of the outlet opening.