mhurhangee/ep-ind-claims huggingface dataset:
A method for communicating between a wired USB enabled device (1010, 1020) and a first wireless USB enabled device (201, 410) in a wireless USB system, comprising: detecting said wired USB enabled device; reading a device descriptor from said wired USB enabled device (1010, 1020); presenting said wired USB enabled device (1010, 1020) such that it appears as a native second wireless USB enabled device to said first wireless USB enabled device (201, 410) by modifying said device descriptor so that it is consistent with a device descriptor for any wireless USB enabled device (201, 410) as specified by a predetermined wireless USB standard; determining an expected amount of data to be transferred from said wired USB enabled device (1010, 1020) to said first wireless USB enabled device (201, 410); modifying a predetermined wireless USB protocol to include said expected amount of data, wherein said predetermined wireless USB protocol includes a predetermined wireless USB wire adapter protocol and said modifying said predetermined wireless USB protocol includes adding a field in a channel time allocation portion of said predetermined wireless USB wire adapter protocol, and wherein said field specifies said expected amount of data; and providing said expected amount of data to said first wireless USB enabled device (201, 410). detecting said wired USB enabled device; reading a device descriptor from said wired USB enabled device (1010, 1020); presenting said wired USB enabled device (1010, 1020) such that it appears as a native second wireless USB enabled device to said first wireless USB enabled device (201, 410) by modifying said device descriptor so that it is consistent with a device descriptor for any wireless USB enabled device (201, 410) as specified by a predetermined wireless USB standard; determining an expected amount of data to be transferred from said wired USB enabled device (1010, 1020) to said first wireless USB enabled device (201, 410); modifying a predetermined wireless USB protocol to include said expected amount of data, wherein said predetermined wireless USB protocol includes a predetermined wireless USB wire adapter protocol and said modifying said predetermined wireless USB protocol includes adding a field in a channel time allocation portion of said predetermined wireless USB wire adapter protocol, and wherein said field specifies said expected amount of data; and providing said expected amount of data to said first wireless USB enabled device (201, 410).
A computer system implementing an n-tier 3D engine architecture comprising: a first tier comprising a client software engine configured to receive input data, send the input data to a second tier, and perform end-user processing of the input data; the second tier connected to the first tier and to a third tier through a network, the second tier comprising a client-dedicated module that is dynamically instantiated per client device by the third tier and which is configured to, depending on the type of input data, either prepare the input data for subsequent processing from the client software engine of the first tier, or send the input data to the third tier; and the third tier comprising a virtual world processing module configured to receive and process the input data from the second tier in order to generate world state updates, and to dynamically instantiate the client-dedicated module to spawn client-dedicated module instances, wherein the world state updates are sent to corresponding client-dedicated module instances for further processing. a first tier comprising a client software engine configured to receive input data, send the input data to a second tier, and perform end-user processing of the input data; the second tier connected to the first tier and to a third tier through a network, the second tier comprising a client-dedicated module that is dynamically instantiated per client device by the third tier and which is configured to, depending on the type of input data, either prepare the input data for subsequent processing from the client software engine of the first tier, or send the input data to the third tier; and the third tier comprising a virtual world processing module configured to receive and process the input data from the second tier in order to generate world state updates, and to dynamically instantiate the client-dedicated module to spawn client-dedicated module instances, wherein the world state updates are sent to corresponding client-dedicated module instances for further processing.
An intraoperative surgical cleaning system configured for use during a surgical procedure including a surgical instrument, the system comprising: a surgical instrument; an endoscope including a scope tube with a lens at a distal end thereof; a sheath assembly including a sleeve tube configured to receive the scope tube of the endoscope therein; a pump configured to pump a lens cleaning solution to the lens through passages (292, 294) defined between the scope tube and the sleeve tube for cleaning the lens; and a processor module; characterized in that the processor module is configured to measure an aggregate activation time of the surgical instrument during the surgical procedure; and activate the pump to clean the lens of the endoscope after the aggregate activation time of the surgical instrument reaches a target duration. a surgical instrument; an endoscope including a scope tube with a lens at a distal end thereof; a sheath assembly including a sleeve tube configured to receive the scope tube of the endoscope therein; a pump configured to pump a lens cleaning solution to the lens through passages (292, 294) defined between the scope tube and the sleeve tube for cleaning the lens; and a processor module; an endoscope including a scope tube with a lens at a distal end thereof; a sheath assembly including a sleeve tube configured to receive the scope tube of the endoscope therein; a pump configured to pump a lens cleaning solution to the lens through passages (292, 294) defined between the scope tube and the sleeve tube for cleaning the lens; and a processor module; characterized in that the processor module is configured to measure an aggregate activation time of the surgical instrument during the surgical procedure; and activate the pump to clean the lens of the endoscope after the aggregate activation time of the surgical instrument reaches a target duration. measure an aggregate activation time of the surgical instrument during the surgical procedure; and activate the pump to clean the lens of the endoscope after the aggregate activation time of the surgical instrument reaches a target duration.
A method for controlling an electronic pipette, which pipette comprises a piston actuated in a cylinder by a motor, which motor is controlled with a control system, which control system is controlled through a user interface (6, 8, 9) for operating the pipette, characterized in that the actual backlash affecting the movement of the piston of the electronic pipette is measured with a system located in the pipette, the measured backlash value is forwarded to the control system of the electronic pipette, and the movement of the piston is adjusted by the control system based on the measured backlash value.
A method for a switching unit (MSC_I) in a network in which a user equipment is being adapted to be attached and connected to a 2G/3G network for performing circuit switched, CS, communication with the network, or being adapted to be attached to a LTE network, for performing packet switched, PS, communication, wherein the PS communication is adapted to be performed via a mobility management entity, MME, which may be arranged in a pool of MME's, that is, a group of MME's being replaceable with one another and covering substantially the same geographical area, the user equipment being adapted to receiving page signals so as to inform the user of incoming calls, the switching unit (MSC_I) being adapted for issuing page signals (16-1; 16-2; 16-3) to MME nodes, - receiving an incoming external CS call; - performing detection of a first selected MME, as to whether the first selected MME is ready or not; - if detecting a not ready state concerning the selected MME (MME_I1), selecting an alternative MME and issuing a page message (16; 16-1) to the alternative MME (MME_I2) belonging to the same pool of MME's as the first MME, wherein the selection of the alternative MME is performed according to a predetermined list of at least one alternative MME stored in the switching unit characterized in prior to the detection of a not ready state, - the predetermined list is indicated in or resolved from a location update request message (44, 54) from a MME under an attach procedure or traffic update / location update procedure; or - the predetermined list is established by the switching unit issuing (45, 55) a Domain Name Service, DNS, query to a DNS server, wherein the DNS server resolves a DNS string into a list of possible MME addresses. - receiving an incoming external CS call; - performing detection of a first selected MME, as to whether the first selected MME is ready or not; - if detecting a not ready state concerning the selected MME (MME_I1), selecting an alternative MME and issuing a page message (16; 16-1) to the alternative MME (MME_I2) belonging to the same pool of MME's as the first MME, - the predetermined list is indicated in or resolved from a location update request message (44, 54) from a MME under an attach procedure or traffic update / location update procedure; or - the predetermined list is established by the switching unit issuing (45, 55) a Domain Name Service, DNS, query to a DNS server, wherein the DNS server resolves a DNS string into a list of possible MME addresses.
A method for use by a node connected to an Integrated Small Cell /WiFi network, ISWN, wherein the node comprises a processor and memory, and wherein the node is one of an MME, a Serving Gateway, SGW, or a PDN Gateway, PGW,, and further includes computer-executable instructions stored in the memory which, when executed by the node, perform the method comprising: receiving at the node a real-time, Bearer Resource Command message indicating whether a flow is associated with unlicensed spectrum access point or is associated with licensed spectrum access point, the flow passing through a gateway that connects both the unlicenesed spectrum access point and the licensed spectrum access point with the ISWN network, the real-time Bearer Resource Command message also indicating whether the User Equipment, UE, (716,720) or some other device selected whether the unlicensed spectrum access point or licensed spectrum access point is used by the flow, wherein the real-time Bearer Resource Command message includes an indication that indicates whether a network node or the UE initiates the change of spectrum type; and performing an operation at the network based on the real-time Bearer Resource Command message, wherein the operation is volume based charging. receiving at the node a real-time, Bearer Resource Command message indicating whether a flow is associated with unlicensed spectrum access point or is associated with licensed spectrum access point, the flow passing through a gateway that connects both the unlicenesed spectrum access point and the licensed spectrum access point with the ISWN network, the real-time Bearer Resource Command message also indicating whether the User Equipment, UE, (716,720) or some other device selected whether the unlicensed spectrum access point or licensed spectrum access point is used by the flow, wherein the real-time Bearer Resource Command message includes an indication that indicates whether a network node or the UE initiates the change of spectrum type; and performing an operation at the network based on the real-time Bearer Resource Command message, wherein the operation is volume based charging.
A display device which comprises at least one screen, a frame into which the screen is fitted comprising; - at least two transmitters which generate infrared light beams or ultrasonic signal beams, located on one edge of the frame; - at least one receiver, which detect the beams coming from at least one transmitter and reflected from an obstacle and which is placed between the at least two transmitters on the same edge of the frame; wherein, among the at least two transmitters, a first transmitter and further odd-numbered transmitters along the edge are in a first group of transmitters, a second transmitter and further even-numbered transmitters along the edge are in a second group of transmitters, and two transmitters located next to the same receiver are not in the same group of transmitters, said display device further comprises at least one scanning means which activates all transmitters in the first group at a time and subsequently all transmitters in the second group at a time such that transmitters located next to same receiver are not activated simultaneously, detects a sense signal level of receivers, activates an on screen menu which is used for adjustment of display parameters, when the obstacle becomes proximate to the screen and which detects the position of the obstacle when the obstacle is in contact with the screen according to the detected sense signal level of the receiver. - at least two transmitters which generate infrared light beams or ultrasonic signal beams, located on one edge of the frame; - at least one receiver, which detect the beams coming from at least one transmitter and reflected from an obstacle and which is placed between the at least two transmitters on the same edge of the frame;
A hydraulic cooler pressure isolation circuit (200, 200A, 200B) for a header of an agricultural harvester equipped with a hydraulic fluid reservoir (202, 202a, 202b) and a pump (204, 204a, 204b), the hydraulic cooler pressure isolation circuit comprising: a hydraulic fluid cooler (270, 270a, 270b); a supply line (206, 206a, 206b) extending from the hydraulic fluid cooler for connecting to the pump of the harvester; a return line (207, 207a, 207b) extending from the hydraulic fluid cooler for connecting to the reservoir of the harvester; a first valve (210, 210a, 210b) hydraulically connected to the supply line upstream the hydraulic fluid cooler; a bypass valve (260, 260a, 260b) hydraulically connected to the supply line upstream the first valve and to the return line; and characterized in that hydraulic cooler pressure isolation circuit comprises: a drain line (208, 208a, 208b) operatively in fluid communication with the supply line and the return line for connecting to the reservoir of the harvester; a return valve (250, 250a, 250b) hydraulically connected to the return line downstream the hydraulic fluid cooler; and a second valve (220, 220a, 220b) hydraulically connected to the return line downstream the hydraulic fluid cooler and upstream the return valve and operatively in fluid communication with the drain line; and further characterized in that the bypass valve is hydraulically connected to the return line downstream the return valve. a hydraulic fluid cooler (270, 270a, 270b); a supply line (206, 206a, 206b) extending from the hydraulic fluid cooler for connecting to the pump of the harvester; a return line (207, 207a, 207b) extending from the hydraulic fluid cooler for connecting to the reservoir of the harvester; a first valve (210, 210a, 210b) hydraulically connected to the supply line upstream the hydraulic fluid cooler; a bypass valve (260, 260a, 260b) hydraulically connected to the supply line upstream the first valve and to the return line; and a drain line (208, 208a, 208b) operatively in fluid communication with the supply line and the return line for connecting to the reservoir of the harvester; a return valve (250, 250a, 250b) hydraulically connected to the return line downstream the hydraulic fluid cooler; and a second valve (220, 220a, 220b) hydraulically connected to the return line downstream the hydraulic fluid cooler and upstream the return valve and operatively in fluid communication with the drain line; and further characterized in that the bypass valve is hydraulically connected to the return line downstream the return valve.
A refractory core (12, 112) for fabricating a hollow turbine engine airfoil using the lost-wax casting technique, the core comprising a main body (14, 114) and at least one shell (16, 116) connected to the main body (14, 114) and defining a cavity (18, 118) between the main body and the shell, the shell (16, 116) being configured to come into contact with the airfoil during fabrication, the cavity (18, 118) being closed so that the casting material does not penetrate into the cavity while casting the airfoil.
An adhesive patch comprising: a backing; and an adhesive layer containing rivastigmine and an alkyl (meth)acrylate-based copolymer without containing any acrylic monomer component having a carboxy group, the adhesive layer being laid on one side of and integrated with the backing, wherein the alkyl (meth)acrylate-based copolymer has no cross-linking by a cross-linking agent, wherein the content of the alkyl (meth)acrylate-based copolymer in the adhesive layer is 50 to 95% by weight, wherein the alkyl (meth)acrylate-based copolymer includes: a copolymer containing a 2-ethylhexyl acrylate component, a 2-ethylhexyl methacrylate component and a dodecyl (meth)acrylate component; or a copolymer containing a 1-vinyl-2-pyrrolidone component and two or more alkyl acrylate components having an alkyl group with 1 to 12 carbon atoms, wherein the alkyl acrylate component having an alkyl group with 1 to 12 carbon atoms is selected from an ethyl acrylate component and a n-octyl acrylate component. a copolymer containing a 2-ethylhexyl acrylate component, a 2-ethylhexyl methacrylate component and a dodecyl (meth)acrylate component; or a copolymer containing a 1-vinyl-2-pyrrolidone component and two or more alkyl acrylate components having an alkyl group with 1 to 12 carbon atoms, wherein the alkyl acrylate component having an alkyl group with 1 to 12 carbon atoms is selected from an ethyl acrylate component and a n-octyl acrylate component.
A composition comprising a pharmaceutically acceptable salt of cromolyn for use in a method of treating a patient having a lung disease or condition selected from idiopathic pulmonary fibrosis or chronic cough, wherein the method comprises administering to the patient the composition with an inhalation device, wherein administration of the composition with the inhalation device produces a systemically effective amount of the pharmaceutically acceptable salt of cromolyn and/or a locally effective amount of the pharmaceutically acceptable salt of cromolyn to treat the lung disease or condition, wherein the inhalation device is a high efficiency nebulizer, and wherein the high efficiency nebulizer is an inhalation device comprising a micro-perforated membrane through which a liquid solution may be converted through electrical or mechanical means into aerosol droplets suitable for inhalation.
A user interface device for manipulating a robotic surgical tool in a surgical robotic system, comprising: a device body having a body surface around a central axis; three or more grip linkages distributed about the central axis, wherein each grip linkage includes a grip crank pivotally coupled to the device body at a device-crank joint, wherein the grip cranks have respective side surfaces and respective exterior surfaces such that, in a closed position, the side surfaces abut each other and the exterior surfaces combine to provide an envelope which includes a surface of revolution about the central axis, and wherein the three or more grip linkages are configured to generate a grip signal for manipulating a grip motion of the robotic surgical tool; and a tracking sensor mounted within the device body, wherein the tracking sensor is configured to track movement of the device body and generate an input spatial state signal to control a spatial motion of the robotic surgical tool. a device body having a body surface around a central axis; three or more grip linkages distributed about the central axis, wherein each grip linkage includes a grip crank pivotally coupled to the device body at a device-crank joint, wherein the grip cranks have respective side surfaces and respective exterior surfaces such that, in a closed position, the side surfaces abut each other and the exterior surfaces combine to provide an envelope which includes a surface of revolution about the central axis, and wherein the three or more grip linkages are configured to generate a grip signal for manipulating a grip motion of the robotic surgical tool; and a tracking sensor mounted within the device body, wherein the tracking sensor is configured to track movement of the device body and generate an input spatial state signal to control a spatial motion of the robotic surgical tool.
A method for inspecting coins which move along a track, using a coil arrangement which has, arranged on a respective common ferrite core, on each side of the track a respective transmitter coil (C, D) being exposable to a transmitter signal, and a respective receiver coil (A, B), such that the first transmitter coil and the first receiver coil are located on one side of the track and that the second transmitter coil and the second receiver coil are located on the other side of the track, wherein the receiver coil which has a smaller diameter is located closer to the track than the transmitter coil, and the diameter of the transmitter coil being smaller than the diameter of the smallest receivable coin and, wherein a secondary coil (E, F) being coupled to the transmitter coil is arranged on the ferrite core, the signal of which is provided to the input of a differential amplifier as negative feedback such that the signal of the transmitter coil conforms to the transmitter signal which is provided to the other input of the differential amplifier, comprising the following steps: - a transmitter signal comprising harmonics is periodically generated, - during a given measuring interval of periodically repeating sections of the transmitter signal, amplitudes of the attenuation function of the received signals from a respective receiver coil are determined at at least three different measuring times, - at least four measuring cycles are conducted chronologically in succession, - during which on each side of the track, one respective reflection measurement is conducted and two transmission measurements are conducted with transmitter and receiver coil, wherein the opposing transmitter coil is operated as receiver coil during one of the two transmission measurements, - the measuring values or the attenuation function, respectively, from at least one of the measuring cycles are put into relation to each other and/or are compared with given reference values. - a transmitter signal comprising harmonics is periodically generated, - during a given measuring interval of periodically repeating sections of the transmitter signal, amplitudes of the attenuation function of the received signals from a respective receiver coil are determined at at least three different measuring times, - at least four measuring cycles are conducted chronologically in succession, - during which on each side of the track, one respective reflection measurement is conducted and two transmission measurements are conducted with transmitter and receiver coil, wherein the opposing transmitter coil is operated as receiver coil during one of the two transmission measurements, - the measuring values or the attenuation function, respectively, from at least one of the measuring cycles are put into relation to each other and/or are compared with given reference values.