mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling a handover of a user equipment, UE, from a serving macro cell base station to a target small cell base station in a heterogeneous network, the method comprising: determining, by the serving macro cell base station, a speed of the UE; and controlling, by the serving macro cell base station, the handover from the serving macro cell base station to the small cell target base station based on the speed of the UE, wherein the controlling includes, classifying the speed of the UE into one of a low speed, medium speed and high speed, and preventing the handover to a small cell if the speed of the UE is the high speed, the target small cell base station serving the small cell. determining, by the serving macro cell base station, a speed of the UE; and controlling, by the serving macro cell base station, the handover from the serving macro cell base station to the small cell target base station based on the speed of the UE, wherein the controlling includes, classifying the speed of the UE into one of a low speed, medium speed and high speed, and preventing the handover to a small cell if the speed of the UE is the high speed, the target small cell base station serving the small cell.
A method for improving oil recovery comprising the steps of: selecting an oil-containing rock formation; applying a water alternate gas process to the oil-containing formation; supplementing a water injection cycle of the water alternate gas process by injecting a nutrient-water mixture that stimulates resident microorganisms characterized in that the stimulated resident microorganisms come into contact with oil trapped within the oil-containing rock formation to increase oil production; and releasing oil and oil residue trapped in a pore space through interaction of the oil with the stimulated resident microorganisms and the water alternate gas process such that the oil is freed to accumulate for production.
An acoustic touch apparatus, comprising: a substrate capable of propagating surface acoustic waves, said substrate having a front surface, a back surface, and a curved connecting surface formed between said front surface and said back surface, wherein said front surface includes a nominal touch region; and at least one acoustic wave transducer (35; 35a, 35b, 35c, 35d) and at least one reflective array (40; 4a, 40b, 40c, 40d), said acoustic wave transducer (35; 35a, 35b, 35c, 35d) provided on said back surface, said acoustic wave transducer (35; 35a, 35b, 35c, 35d) configured to transmit or receive surface acoustic waves to or from said reflective array (40; 40a, 40b, 40c, 40d), and characterized in that said reflective array (40; 40a, 40b, 40c, 40d) is provided on said back surface, and said reflective array (40; 40a, 40b, 40c, 40d) having reflective elements that are formed to direct transmitted surface acoustic waves from said back surface outwardly toward said curved connecting surface, and to collect surface acoustic waves coming from said curved connecting surface toward said acoustic wave transducer. a substrate capable of propagating surface acoustic waves, said substrate having a front surface, a back surface, and a curved connecting surface formed between said front surface and said back surface, wherein said front surface includes a nominal touch region; and at least one acoustic wave transducer (35; 35a, 35b, 35c, 35d) and at least one reflective array (40; 4a, 40b, 40c, 40d), said acoustic wave transducer (35; 35a, 35b, 35c, 35d) provided on said back surface, said acoustic wave transducer (35; 35a, 35b, 35c, 35d) configured to transmit or receive surface acoustic waves to or from said reflective array (40; 40a, 40b, 40c, 40d), and characterized in that said reflective array (40; 40a, 40b, 40c, 40d) is provided on said back surface, and said reflective array (40; 40a, 40b, 40c, 40d) having reflective elements that are formed to direct transmitted surface acoustic waves from said back surface outwardly toward said curved connecting surface, and to collect surface acoustic waves coming from said curved connecting surface toward said acoustic wave transducer.
A method of dynamically configuring a device for use in an automation system, the method comprising: defining a configuration file related to the functionality of the device, wherein the configuration file identifies one or more composed components stored in communication with the device, wherein in case of multiple instances of the composed component being required and defined within the configuration file, each composed component is defined by its own structured data configuration file and constitutes a new instance of the composed component; transferring the configuration file to the device such that the configuration file is accessible by a dynamic configuration tool; initializing the device according to the dynamic configuration tool and the configuration file, wherein the dynamic configuration tool retrieves the one or more composed components identified by the configuration file; generating an executable file for the device based on the one or more standardized and/or composed components identified by the configuration file; and operating the device utilizing the generated executable file. defining a configuration file related to the functionality of the device, wherein the configuration file identifies one or more composed components stored in communication with the device, wherein in case of multiple instances of the composed component being required and defined within the configuration file, each composed component is defined by its own structured data configuration file and constitutes a new instance of the composed component; wherein the configuration file identifies one or more composed components stored in communication with the device, wherein in case of multiple instances of the composed component being required and defined within the configuration file, each composed component is defined by its own structured data configuration file and constitutes a new instance of the composed component; transferring the configuration file to the device such that the configuration file is accessible by a dynamic configuration tool; initializing the device according to the dynamic configuration tool and the configuration file, wherein the dynamic configuration tool retrieves the one or more composed components identified by the configuration file; generating an executable file for the device based on the one or more standardized and/or composed components identified by the configuration file; and operating the device utilizing the generated executable file.
A testing device, comprising a test gas container, which is provided with a test leak for producing a test gas flow with a predefined leakage rate, wherein the test leak comprises at least one capillary tube which connects the interior of the test gas container to the ambient environment of the test gas container in a gas-conducting manner, and the test gas container is at least partially made of a flexible material, characterized in that the test gas container includes a spacer in its interior, the spacer serving to space a part of the flexible material apart from at least a part of the other walls of the test gas container.
A control apparatus including a pinch detector for detecting a pinch at a closing member actuated by a motor, and configured to receive successive measured values of a physical quantity of the motor from a measuring circuit, characterized in that said pinch detector includes a first portion that is configured, in a first situation in which the member is being closed in a first closing movement but is stopped in an intermediate position not completely closed, - to obtain a reference value of said physical quantity of the motor when braking the motor is ordered to stop the member, said reference value representing the measured value of the physical quantity of the motor just before motor braking, and - to determine a threshold value by adding to or by subtracting from the reference value a margin value of the physical quantity of the motor; and a second portion that is configured, in a second situation following the first situation and in which the member is moved from said intermediate position not completely closed in a second closing movement, to compare current measured values of the physical quantity of the motor to said determined threshold value, in order to detect a pinch at the closing member based on a comparison result. a first portion that is configured, in a first situation in which the member is being closed in a first closing movement but is stopped in an intermediate position not completely closed, - to obtain a reference value of said physical quantity of the motor when braking the motor is ordered to stop the member, said reference value representing the measured value of the physical quantity of the motor just before motor braking, and - to determine a threshold value by adding to or by subtracting from the reference value a margin value of the physical quantity of the motor; and - to obtain a reference value of said physical quantity of the motor when braking the motor is ordered to stop the member, said reference value representing the measured value of the physical quantity of the motor just before motor braking, and - to determine a threshold value by adding to or by subtracting from the reference value a margin value of the physical quantity of the motor; and a second portion that is configured, in a second situation following the first situation and in which the member is moved from said intermediate position not completely closed in a second closing movement, to compare current measured values of the physical quantity of the motor to said determined threshold value, in order to detect a pinch at the closing member based on a comparison result.
An apparatus for determining a corneal map (600a, 600b, 600c), comprising: a. a source (501, 502) for providing laser light, wherein the apparatus is adapted to illuminate a portion of a cornea using the laser light; b. a detector (506, 508) for detecting at least a portion of the laser light being returned from the cornea at a non-zero angle, formed between an axis along which the laser light from the source propagates and an axis along which the at least a portion of the laser light is returned from the cornea; c. characterised in that the source (501, 502) for providing laser light comprises a multimode laser. a. a source (501, 502) for providing laser light, wherein the apparatus is adapted to illuminate a portion of a cornea using the laser light; b. a detector (506, 508) for detecting at least a portion of the laser light being returned from the cornea at a non-zero angle, formed between an axis along which the laser light from the source propagates and an axis along which the at least a portion of the laser light is returned from the cornea; c. characterised in that the source (501, 502) for providing laser light comprises a multimode laser.
A method of a network node of a wireless communication system comprising: configuring a first random access channel for transmission of random access messages from a first wireless communication device having a first synchronization accuracy vis-à-visthe network node; configuring a second random access channel for transmission of random access messages from a second wireless communication device having a second synchronization accuracy vis-à-vis the network node, wherein the second synchronization accuracy is lower than the first synchronization accuracy; transmitting configuration information of at least the second random access channel configurations to the first wireless communication device and to the second wireless communication device; monitoring the second random access channel; and if a random access message transmitted from the second wireless communication device is detected on the second random access channel: determining a synchronization error of the second wireless communication device; and transmitting a random access response to the second wireless communication device, wherein the transmission is compensated based on the determined synchronization error. configuring a first random access channel for transmission of random access messages from a first wireless communication device having a first synchronization accuracy vis-à-visthe network node; configuring a second random access channel for transmission of random access messages from a second wireless communication device having a second synchronization accuracy vis-à-vis the network node, wherein the second synchronization accuracy is lower than the first synchronization accuracy; transmitting configuration information of at least the second random access channel configurations to the first wireless communication device and to the second wireless communication device; monitoring the second random access channel; and if a random access message transmitted from the second wireless communication device is detected on the second random access channel: determining a synchronization error of the second wireless communication device; and transmitting a random access response to the second wireless communication device, wherein the transmission is compensated based on the determined synchronization error. determining a synchronization error of the second wireless communication device; and transmitting a random access response to the second wireless communication device, wherein the transmission is compensated based on the determined synchronization error.
Dashboard for a vehicle, wherein the dashboard has a display device for displaying vehicle operating data, control and/or service data, wherein the dashboard comprises a holding device for a mobile device, wherein the holding device is integrated in the dashboard in such a way that the mobile device can be arranged at the front and/or flush with the display device, characterized in that the holding device comprises at least one receiving area for receiving the mobile device, wherein the receiving area can be adapted to a size and design of the mobile device, that the holding device comprises a rear wall for supporting the rear and/or placing the mobile device in the receiving area, wherein the rear wall is aligned with a rear boundary of the display device, that the rear wall has a recess for a camera lens and/or for other functional elements of the mobile device and that the holding device has a support device for laterally supporting the mobile device and/or for laterally resting on the mobile device, wherein the support device can be moved along the rear wall and/or locked in several positions to adapt the receiving area to the size and/or design of the mobile device.
A pressure rated well annulus fluid expansion storage device that is capable of managing a pressure variation of a well annulus by removing or adding fluid to the well annulus, the well annulus fluid expansion storage device comprising: an annulus fluid expansion unit containing a well annulus fluid and a working fluid, wherein the annulus fluid expansion unit further comprises a moveable partition maintaining the working fluid and the well annulus fluid in separate chambers of the annulus fluid expansion unit; a working fluid storage tank containing the working fluid; an adjustable pressure control valve configured to maintain a pressure of the working fluid; a working fluid pump configured to feed pressurized working fluid from the working fluid storage tank into the annulus fluid expansion unit; a check valve configured to allow flow of working fluid from the working fluid storage tank to the annulus fluid expansion unit; and a flow line for receiving and discharging well annulus fluid to and from, respectively, the annulus fluid expansion unit. an annulus fluid expansion unit containing a well annulus fluid and a working fluid, wherein the annulus fluid expansion unit further comprises a moveable partition maintaining the working fluid and the well annulus fluid in separate chambers of the annulus fluid expansion unit; a working fluid storage tank containing the working fluid; an adjustable pressure control valve configured to maintain a pressure of the working fluid; a working fluid pump configured to feed pressurized working fluid from the working fluid storage tank into the annulus fluid expansion unit; a check valve configured to allow flow of working fluid from the working fluid storage tank to the annulus fluid expansion unit; and a flow line for receiving and discharging well annulus fluid to and from, respectively, the annulus fluid expansion unit.
A curable epoxy resin formulation comprising: an epoxy resin composition comprising a mixture of: at least one solid epoxy resin, at least one novolac epoxy resin, and at least one cycloaliphatic epoxy resin; at least one anhydride hardener; at least one filler; and optionally, at least one catalyst or at least one accelerator, wherein, "solid epoxy resin" means an epoxy resin with a softening point no less than 50 °C; and the formulation contains an epoxy group to anhydride group ratio of from 1:0.75 to 1:0.85. an epoxy resin composition comprising a mixture of: at least one solid epoxy resin, at least one novolac epoxy resin, and at least one cycloaliphatic epoxy resin; at least one solid epoxy resin, at least one novolac epoxy resin, and at least one cycloaliphatic epoxy resin; at least one anhydride hardener; at least one filler; and optionally, at least one catalyst or at least one accelerator,
Composition for use in the treatment of pain in patients who underwent elective arthroplasty, the composition comprising at least a first active agent, wherein the first active agent comprises the amino acids leucine, isoleucine, valine, lysine, threonine, histidine, phenylalanine, methionine, tryptophan, tyrosine, and cystine.
Method for removal of a harmful fiber containing material from a building structure, wherein the method comprises a step of releasing an aerosol inside the building structure, which aerosol spreads out towards the harmful fiber containing material to be removed and partly penetrates it, followed by a step of blowing and applying a foam against the harmful fiber containing material to be removed, which foam at least partly penetrates it, followed by removal of said harmful fiber containing material, wherein the aerosol and the foam are both formed from a water based amphipathic solution, wherein the amphipathic solution comprises a sulfonic acid derivative.
A hydraulic distribution valve, comprising: - a valve housing, - a valve chamber integrated into the valve housing and having at least one first valve seat bore as a connection to a first line, a second valve seat bore as a connection to a second line, and a free aperture to a third line, - an actuating mechanism, and - a valve spindle which is moveable by means of the actuating mechanism and is partly disposed in the valve chamber, - wherein the valve spindle within the valve chamber comprises a surface, preferably a convex surface as a first sealing surface, oriented towards the first valve seat bore, and a surface, preferably a cone-shaped surface as a second sealing surface, oriented towards the second valve seat bore, in such a way that optionally the first valve seat bore or the second valve seat bore can be closed, characterized in that - by configuring an external contour of the valve spindle and an internal contour of the valve chamber, the valve chamber is subdivided into a retaining chamber and a main chamber, - wherein the retaining chamber is formed between the first valve seat bore and the valve spindle, and - wherein the first flow cross-sectional surface in the first valve seat bore is larger than another flow cross-sectional surface of the flow from the retaining chamber into the main chamber or into the third line at a minimum lifting of the first sealing surface off the first valve seat bore. - a valve housing, - a valve chamber integrated into the valve housing and having at least one first valve seat bore as a connection to a first line, a second valve seat bore as a connection to a second line, and a free aperture to a third line, - an actuating mechanism, and - a valve spindle which is moveable by means of the actuating mechanism and is partly disposed in the valve chamber, - wherein the valve spindle within the valve chamber comprises a surface, preferably a convex surface as a first sealing surface, oriented towards the first valve seat bore, and a surface, preferably a cone-shaped surface as a second sealing surface, oriented towards the second valve seat bore, in such a way that optionally the first valve seat bore or the second valve seat bore can be closed, characterized in that - by configuring an external contour of the valve spindle and an internal contour of the valve chamber, the valve chamber is subdivided into a retaining chamber and a main chamber, - wherein the retaining chamber is formed between the first valve seat bore and the valve spindle, and - wherein the first flow cross-sectional surface in the first valve seat bore is larger than another flow cross-sectional surface of the flow from the retaining chamber into the main chamber or into the third line at a minimum lifting of the first sealing surface off the first valve seat bore.
Field device used in automation engineering, comprising: - a housing; - a field device electronics unit arranged inside the housing, wherein a maximum power is supplied to said unit via a two-wire line or four-wire line; - a storage element, preferably arranged inside the housing, designed to save data, wherein said element is electrically connected or can be electrically connected to the field device electronics unit for the purpose of exchanging data and/or supplying energy and which, for the purpose of saving data, requires a power which is at least temporarily higher than the maximum power provided via the two-wire line or four-wire line; - a second antenna, which is designed to communicate the data wirelessly and exchange the data with the field device electronics unit; - a first NFC antenna, which is designed to wirelessly receive an auxiliary energy and to make the auxiliary energy available to the field device electronics unit; wherein the field device electronics unit is further designed to supply auxiliary energy to the storage element, at least in the event that data is received via the second antenna and should be saved in the storage element. - a housing; - a field device electronics unit arranged inside the housing, wherein a maximum power is supplied to said unit via a two-wire line or four-wire line; - a storage element, preferably arranged inside the housing, designed to save data, wherein said element is electrically connected or can be electrically connected to the field device electronics unit for the purpose of exchanging data and/or supplying energy and which, for the purpose of saving data, requires a power which is at least temporarily higher than the maximum power provided via the two-wire line or four-wire line; - a second antenna, which is designed to communicate the data wirelessly and exchange the data with the field device electronics unit; - a first NFC antenna, which is designed to wirelessly receive an auxiliary energy and to make the auxiliary energy available to the field device electronics unit;