mhurhangee/patent-ind-claim-en huggingface dataset:
A device for securing a solar panel to a rail , the solar panel including a frame and a return flange , the return flange being a lower lip portion of the frame that projects inward underneath the solar panel , comprising: a clamp body that includes a bottom , and a first side and a second side each extending from the bottom , a pair of slot-shaped openings for receiving the return flange of the solar panel , the pair of slot-shaped openings including a first slot-shaped opening that is open on a first end and extends widthwise into the first side and a second slot-shaped opening that is open on a second end and extends widthwise into the second side ; and a clamping mechanism at least partially positioned within the clamp body , the clamping mechanism includes a threaded fastener and a movable member ; wherein the clamp body is structured to receive the rail between the pair of slot-shaped openings and the clamping mechanism , and the movable member made movable by the threaded fastener is configured to selectively press against the rail and clamp the return flange against the rail . a clamp body that includes a bottom , and a first side and a second side each extending from the bottom , a pair of slot-shaped openings for receiving the return flange of the solar panel , the pair of slot-shaped openings including a first slot-shaped opening that is open on a first end and extends widthwise into the first side and a second slot-shaped opening that is open on a second end and extends widthwise into the second side ; and a clamping mechanism at least partially positioned within the clamp body , the clamping mechanism includes a threaded fastener and a movable member ; wherein the clamp body is structured to receive the rail between the pair of slot-shaped openings and the clamping mechanism , and the movable member made movable by the threaded fastener is configured to selectively press against the rail and clamp the return flange against the rail .
A reinforcing structure of an automobile exterior panel comprising an outer panel of a sheet shape, reinforcing members including a plurality of first members of long shapes arranged at a vehicle inner side from said outer panel and a plurality of second members of long shapes arranged at a vehicle inner side from said outer panel and crossing said plurality of first members , an inner panel of a sheet shape arranged at a vehicle inner side from said first members and said second members , and characterized by support members provided at said inner panel at a vehicle outer side thereof and supporting said first members or said second members from a vehicle inner side, said support members supporting said first members or said second members at a plurality of crossing parts where said first members and said second members cross or between such adjoining crossing parts, wherein the end part of said support member at said reinforcing member side is close to or in contact with the surface of said reinforcing member at the vehicle inner side. an outer panel of a sheet shape, reinforcing members including a plurality of first members of long shapes arranged at a vehicle inner side from said outer panel and a plurality of second members of long shapes arranged at a vehicle inner side from said outer panel and crossing said plurality of first members , an inner panel of a sheet shape arranged at a vehicle inner side from said first members and said second members , and characterized by support members provided at said inner panel at a vehicle outer side thereof and supporting said first members or said second members from a vehicle inner side, said support members supporting said first members or said second members at a plurality of crossing parts where said first members and said second members cross or between such adjoining crossing parts, wherein the end part of said support member at said reinforcing member side is close to or in contact with the surface of said reinforcing member at the vehicle inner side.
A method comprising: allocating , by a controller of cloud computing resources of a gateway in a mobile communications network, cloud computing resources to process user sessions by the gateway ; and allocating , by the controller of cloud computing resources, the cloud computing resources in pairs to the user sessions, wherein each pair for each user session comprises an active cloud computing resource for processing user and control plane traffic of the user session and a standby cloud computing resource being a standby for the active cloud computing resource, the standby cloud computing resource being configured to also process the control plane traffic of the user session. allocating , by a controller of cloud computing resources of a gateway in a mobile communications network, cloud computing resources to process user sessions by the gateway ; and allocating , by the controller of cloud computing resources, the cloud computing resources in pairs to the user sessions, wherein each pair for each user session comprises an active cloud computing resource for processing user and control plane traffic of the user session and a standby cloud computing resource being a standby for the active cloud computing resource, the standby cloud computing resource being configured to also process the control plane traffic of the user session.
Direct printing machine for printing onto containers with a conveyor for transporting said containers in container receptacles along a transport path (T) and with several printing stations which are respectively associated with said container receptacles and which are each formed with several separately adjustable direct print heads for printing several partial prints of a direct print onto a container , where said printing stations are each associated with their individual inspection device with at least one camera to inspect the position of said partial prints on said container , and where said camera is movable by a positioning unit , characterized in that said positioning unit is configured to move said associated container receptacle together with said camera relative to said direct print heads , or in that said positioning unit is configured to move said direct print heads together with said camera relative to said associated container receptacle .
An adjustable-length strap , comprising: a core having opposed first and second sides and defining an aperture extending from the first side to the second side; a fastener member defining first and second apertures (112a, b) and a cross-member positioned therebetween, wherein the fastener member further defines a flange extending outwardly of the first and second apertures (112a, b) and so urging against the first side of the core as to align the first and second apertures (112a, b) of the fastener member with the aperture extending through the core ; a strap extending through the first aperture in the fastener member in a direction extending from the first side of the core to the second side of the core , over the cross-member and through the second aperture in the fastener member in a direction extending from the second side of the core to the first side of the core ; and a cover plate positioned adjacent the second side of the core and matingly engaged with the fastener member through the aperture in the core . a core having opposed first and second sides and defining an aperture extending from the first side to the second side; a fastener member defining first and second apertures (112a, b) and a cross-member positioned therebetween, wherein the fastener member further defines a flange extending outwardly of the first and second apertures (112a, b) and so urging against the first side of the core as to align the first and second apertures (112a, b) of the fastener member with the aperture extending through the core ; a strap extending through the first aperture in the fastener member in a direction extending from the first side of the core to the second side of the core , over the cross-member and through the second aperture in the fastener member in a direction extending from the second side of the core to the first side of the core ; and a cover plate positioned adjacent the second side of the core and matingly engaged with the fastener member through the aperture in the core .
A method performed by a server connected to a network, wherein the server comprises a processor and memory, and wherein the server further includes computer-executable instructions stored in the memory which, when executed by the processor, perform functions of a server in the network, the method comprising: determining an indication of a probability that a user requests multiple machine-to-machine content resources simultaneously, the multiple machine-to-machine content resources associated with multiple machine-to-machine devices operatively connected to the network, and determining, using the indication, a first machine-to-machine gateway in the network at which to store the multiple machine-to-machine content resources. determining an indication of a probability that a user requests multiple machine-to-machine content resources simultaneously, the multiple machine-to-machine content resources associated with multiple machine-to-machine devices operatively connected to the network, and determining, using the indication, a first machine-to-machine gateway in the network at which to store the multiple machine-to-machine content resources.
A system comprising an implantable medical device for sensing cardiac electrical events, the system comprising: a sensing circuit configured to: receive a cardiac electrical signal from electrodes coupled to the implantable medical device; sense a cardiac event attendant to a myocardial depolarization in response to the cardiac electrical signal crossing a cardiac event sensing threshold; a therapy delivery circuit configured to deliver an electrical stimulation therapy to a patient's heart via the electrodes coupled to the implantable medical device; and characterised by a control circuit configured to: determine a gain based on a minimum threshold value; determine a maximum limit of a starting threshold value based on the gain and the minimum threshold value of the cardiac event sensing threshold; control the sensing circuit to set a starting value of the cardiac event sensing threshold to be equal to or less than the maximum limit; detect an arrhythmia based on a plurality of cardiac events sensed by the sensing circuit; and control the therapy delivery circuit to deliver the electrical stimulation therapy in response to detecting the arrhythmia. a sensing circuit configured to: receive a cardiac electrical signal from electrodes coupled to the implantable medical device; sense a cardiac event attendant to a myocardial depolarization in response to the cardiac electrical signal crossing a cardiac event sensing threshold; receive a cardiac electrical signal from electrodes coupled to the implantable medical device; sense a cardiac event attendant to a myocardial depolarization in response to the cardiac electrical signal crossing a cardiac event sensing threshold; a therapy delivery circuit configured to deliver an electrical stimulation therapy to a patient's heart via the electrodes coupled to the implantable medical device; and characterised by a control circuit configured to: determine a gain based on a minimum threshold value; determine a maximum limit of a starting threshold value based on the gain and the minimum threshold value of the cardiac event sensing threshold; control the sensing circuit to set a starting value of the cardiac event sensing threshold to be equal to or less than the maximum limit; detect an arrhythmia based on a plurality of cardiac events sensed by the sensing circuit; and control the therapy delivery circuit to deliver the electrical stimulation therapy in response to detecting the arrhythmia. determine a gain based on a minimum threshold value; determine a maximum limit of a starting threshold value based on the gain and the minimum threshold value of the cardiac event sensing threshold; control the sensing circuit to set a starting value of the cardiac event sensing threshold to be equal to or less than the maximum limit; detect an arrhythmia based on a plurality of cardiac events sensed by the sensing circuit; and control the therapy delivery circuit to deliver the electrical stimulation therapy in response to detecting the arrhythmia.
A material obtained from sulfur and an organic starting material in a liquid form wherein the material comprises carbon, hydrogen, oxygen, and sulfur as constituent elements, and having peaks with tolerances of ±30 cm -1 at 482 cm -1 , 846 cm -1 , 1066 cm -1 , 1279 cm -1 , and 1442 cm -1 in a Raman spectrum detected by Raman spectroscopy, the peak with a tolerance of ±30 cm -1 at 1442 cm -1 being most intense, wherein the carbon content is 20 to 50 wt%, the hydrogen content is 0.01 to 5 wt%, the oxygen content is 0.1 to 30 wt%, and the sulfur content is 45 to 75 wt%.
A metal closure for a container , the metal closure comprising: a circular, closure panel having an internal surface extending to a periphery; a concentric channel extending from the periphery along an angled wall into a parallel wall generally parallel to the closure panel , the parallel wall extending into a first rounded wall having a center of radius within the closure , wherein the parallel wall is offset from the closure panel by a first distance; a concentric flange extending from the first rounded wall into a second rounded wall having a center of radius external to the closure into a transition wall which extends into a third rounded wall having a center of radius within the closure , wherein the first rounded wall transitions into the second rounded wall at a second distance from the periphery, the second distance being at least 2 times as large as the first distance; a cylindrical skirt extending from the concentric flange ; at least 4 equally spaced rolled flanges extending from the cylindrical skirt ; at least one thread engagement flange located between each pair of rolled flanges ; and a resilient polymeric material which fills the concentric channel , characterized in that the cross-sectional width of the material in the concentric channel is in the range of 150% to 250% of the cross-sectional height of the material in the concentric channel . a circular, closure panel having an internal surface extending to a periphery; a concentric channel extending from the periphery along an angled wall into a parallel wall generally parallel to the closure panel , the parallel wall extending into a first rounded wall having a center of radius within the closure , wherein the parallel wall is offset from the closure panel by a first distance; a concentric flange extending from the first rounded wall into a second rounded wall having a center of radius external to the closure into a transition wall which extends into a third rounded wall having a center of radius within the closure , wherein the first rounded wall transitions into the second rounded wall at a second distance from the periphery, the second distance being at least 2 times as large as the first distance; a cylindrical skirt extending from the concentric flange ; at least 4 equally spaced rolled flanges extending from the cylindrical skirt ; at least one thread engagement flange located between each pair of rolled flanges ; and a resilient polymeric material which fills the concentric channel , characterized in that the cross-sectional width of the material in the concentric channel is in the range of 150% to 250% of the cross-sectional height of the material in the concentric channel .
A method of making an oil-in-water emulsion comprising a) combining water and an emulsifier to provide an aqueous mixture; b) adding to the aqueous mixture a polyunsaturated fatty acid while mixing to provide an oil-in-water emulsion; and c) adding to the oil-in-water emulsion a metal chelating agent and an antioxidant; wherein the metal chelating agent is present in an amount from 3% to 20% by weight of the emulsion and wherein the antioxidant is present in an amount from 2% to 20% by weight of the emulsion, wherein the emulsion comprises from 2% to 6% of a salt of ascorbate or ascorbic acid by weight of the emulsion and from 0.05% to 0.5% tocopherols by weight of the emulsion, and wherein the water is present in a concentration of 40% to 75% by weight of the emulsion, and wherein the emulsion has a pH of 3 to 5. a) combining water and an emulsifier to provide an aqueous mixture; b) adding to the aqueous mixture a polyunsaturated fatty acid while mixing to provide an oil-in-water emulsion; and c) adding to the oil-in-water emulsion a metal chelating agent and an antioxidant;
Building structure , comprising an outer surface , wherein a vortex generator is connected to the outer surface of the building structure , said vortex generator is prepared and arranged in a way to generate vortices in an airstream passing by the outer surface , whereby the vortex generator comprises a plurality of fins , that are arranged in a row , wherein: - the fins comprise a tip with a maximum elevation vertical to the outer surface , and a rim adjacent to the tip , that comprises a decreasing elevation vertical to the outer surface and - a section of the upper part of the building structure is equipped with vortex generators , whereby at least 10% of the length of the building structure is equipped with vortex generators . - the fins comprise a tip with a maximum elevation vertical to the outer surface , and a rim adjacent to the tip , that comprises a decreasing elevation vertical to the outer surface and - a section of the upper part of the building structure is equipped with vortex generators , whereby at least 10% of the length of the building structure is equipped with vortex generators .
Method for monitoring and controlling the operation of a submergible pump upon start of the pump, the pump being located in a reservoir containing a liquid, wherein the pump comprises an inlet , an outlet , a volute located between said inlet and said outlet , and an impeller located in said volute , the method being characterized by the step of performing a priming of the pump in response to a priming condition, characterized in that the priming comprises the steps of: - confirming that the liquid level in the reservoir is located at the same level or above the upper portion of the impeller , - driving the impeller in a reverse direction of rotation in order to generate a flow of gas/liquid mixture from the volute out through the inlet of the pump , wherein the duration of the reverse operation of the impeller is equal to or more than 2 seconds and equal to or less than 5 seconds, - stopping the impeller from rotating in the reverse direction of rotation, - driving the impeller in a forward direction of rotation in order to generate a flow of liquid from the volute out through the outlet of the pump , - detecting, during the forward operation of the impeller , whether too much gas is present in the volute preventing the impeller from generating the expected flow of liquid from the volute out through the outlet of the pump , and - in response to detection of too much gas in the volute , stopping the impeller from rotating in the forward direction of rotation and returning to the step of driving the impeller in the reverse direction of rotation, and in response to non-detection of too much gas in the volute , exiting the priming of the pump . - confirming that the liquid level in the reservoir is located at the same level or above the upper portion of the impeller , - driving the impeller in a reverse direction of rotation in order to generate a flow of gas/liquid mixture from the volute out through the inlet of the pump , wherein the duration of the reverse operation of the impeller is equal to or more than 2 seconds and equal to or less than 5 seconds, - stopping the impeller from rotating in the reverse direction of rotation, - driving the impeller in a forward direction of rotation in order to generate a flow of liquid from the volute out through the outlet of the pump , - detecting, during the forward operation of the impeller , whether too much gas is present in the volute preventing the impeller from generating the expected flow of liquid from the volute out through the outlet of the pump , and - in response to detection of too much gas in the volute , stopping the impeller from rotating in the forward direction of rotation and returning to the step of driving the impeller in the reverse direction of rotation, and in response to non-detection of too much gas in the volute , exiting the priming of the pump .
A method for use with a local device that is directly connected by a hardwired connection to an automotive controller which is connected through a controller area network to sensors and actuators resident on a vehicle, wherein the method comprises: establishing a data connection with the automotive controller ; establishing a wireless network connection with a client device which acts as a client of a system server and as a client of the local device ; sending a first vehicle data request from the client device to the local device ; retrieving, by the local device , the first vehicle data from the automotive controller based on the first vehicle data request; transmitting, by the local device , the first vehicle data to the client device for display by the client device ; sending a second vehicle data request from the client device to the local device ; retrieving, by the local device , the second vehicle data from the automotive controller based on the second vehicle data request; transmitting, by the local device , the second vehicle data to the client device for display by the client device ; transmitting, by the client device , a request for updated engine parameters to the system server based on the second vehicle data; receiving, at the client device , the updated engine parameters and updated firmware; making, at the client device , a selection of one or more of the updated parameters and the updated firmware; receiving, at the local device, the selection of the one or more of the updated parameters and the updated firmware from the client device ; and loading the selection of the one or more of the updated parameters and the updated firmware onto the automotive controller . establishing a data connection with the automotive controller ; establishing a wireless network connection with a client device which acts as a client of a system server and as a client of the local device ; sending a first vehicle data request from the client device to the local device ; retrieving, by the local device , the first vehicle data from the automotive controller based on the first vehicle data request; transmitting, by the local device , the first vehicle data to the client device for display by the client device ; sending a second vehicle data request from the client device to the local device ; retrieving, by the local device , the second vehicle data from the automotive controller based on the second vehicle data request; transmitting, by the local device , the second vehicle data to the client device for display by the client device ; transmitting, by the client device , a request for updated engine parameters to the system server based on the second vehicle data; receiving, at the client device , the updated engine parameters and updated firmware; making, at the client device , a selection of one or more of the updated parameters and the updated firmware; receiving, at the local device, the selection of the one or more of the updated parameters and the updated firmware from the client device ; and loading the selection of the one or more of the updated parameters and the updated firmware onto the automotive controller .