mhurhangee/patent-ind-claim-en huggingface dataset:
A capsule for use with an electronic smoking device having control electronics and an atomizer to atomize a liquid , the capsule serving as a reservoir for liquid to be atomized and comprising: first and second electrical contacts , which are adapted to be connected to electrical contacts provided at the electronic smoking device ; a shell having an end side providing an access port, wherein the access port is covered by a pierceable membrane , wherein the membrane comprises a metal foil and the metal foil serves as one of the first and second electrical contacts of the capsule ; and a controller including a memory, wherein said controller is operable to exchange data with the control electronics of an electronic smoking device via one of said first and second electrical contacts defining a signal contact when said first and second electrical contacts are connected to electrical contacts provided at the electronic smoking device ; characterized by a capacitor (C) electrically connected to the controller and to the first and second electrical contacts , adapted to be charged by the electronic smoking device when the first and second electrical contacts are connected to electrical contacts provided at the electronic smoking device and to power the controller during intermediate intervals when the signal contact is at ground voltage level during data transmission. first and second electrical contacts , which are adapted to be connected to electrical contacts provided at the electronic smoking device ; a shell having an end side providing an access port, wherein the access port is covered by a pierceable membrane , wherein the membrane comprises a metal foil and the metal foil serves as one of the first and second electrical contacts of the capsule ; and a controller including a memory, wherein said controller is operable to exchange data with the control electronics of an electronic smoking device via one of said first and second electrical contacts defining a signal contact when said first and second electrical contacts are connected to electrical contacts provided at the electronic smoking device ; characterized by a capacitor (C) electrically connected to the controller and to the first and second electrical contacts , adapted to be charged by the electronic smoking device when the first and second electrical contacts are connected to electrical contacts provided at the electronic smoking device and to power the controller during intermediate intervals when the signal contact is at ground voltage level during data transmission.
A compound of formula (I-B) wherein R 1 denotes Hal, A, CN, -E-phenyl or Het 3 ; R 2 denotes Hal, A, OA, NH 2 , CN, SA, SO 2 A, SO 2 NH 2 , O-phenyl or Het 1 ; R 3 , R 4 denote H, and R 5 , R 6 denote A; E denotes O or a single bond; A denotes unbranched or branched alkyl having 1-5 C atoms; Het 1 denotes pyrrolyl, furyl, thiophenyl, imidazolyl, pyrazyl, isoxazyl, thiazyl or pyridyl, which can be mono- or disubstituted by at least one substituent selected from the group of Hal, A and OA; Het 3 denotes pyrrolidinyl, tetrahydrofuryl, oxazolidinyl, dioxalanyl, piperazinyl, morpholinyl or dioxanyl, which can be mono- or disubstituted by at least one substituent selected from the group of Hal, COA and =O; Hal denotes F, Cl or Br; and m denotes 0; and/or a physiologically acceptable salt thereof. R 1 denotes Hal, A, CN, -E-phenyl or Het 3 ; R 2 denotes Hal, A, OA, NH 2 , CN, SA, SO 2 A, SO 2 NH 2 , O-phenyl or Het 1 ; R 3 , R 4 denote H, and R 5 , R 6 denote A; E denotes O or a single bond; A denotes unbranched or branched alkyl having 1-5 C atoms; Het 1 denotes pyrrolyl, furyl, thiophenyl, imidazolyl, pyrazyl, isoxazyl, thiazyl or pyridyl, which can be mono- or disubstituted by at least one substituent selected from the group of Hal, A and OA; Het 3 denotes pyrrolidinyl, tetrahydrofuryl, oxazolidinyl, dioxalanyl, piperazinyl, morpholinyl or dioxanyl, which can be mono- or disubstituted by at least one substituent selected from the group of Hal, COA and =O; Hal denotes F, Cl or Br; and m denotes 0;
A method for driving a session between a browser applet running on a client and a servlet running on a server , the method comprising the server side operations of: establishing a secure channel between a card applet on a smart card in communication with the client, and the servlet; receiving a request from the browser applet running on the client; checking session state variables for a servlet receiving the request; executing functionality associated with the request based on information associated with the session state variables; determining whether to return control to the browser applet; wherein if it is determined not to return control to the browser applet running on the client, the method includes: storing a state associated with the servlet in the session state variables; and transmitting both a command and data to the browser applet; and wherein if it is determined to return control to the browser applet running on the client, then the method further includes returning a command to the browser applet to signify that processing is complete; wherein transmitting both a command and data to the browser applet includes: causing the browser applet to forward the data to the smart card in communication with the client; and receiving a response from the smart card forwarded by the browser applet; wherein the smart card is a Java card, and wherein the command is selected from the group consisting of, Send Application Protocol Data Units (APDUs) to the Java card; Change servlet to be called to another specified servlet; Display images/messages to a user; End servlet interaction to return control to the browser applet; and Query the user for a card personal identification number (PIN). establishing a secure channel between a card applet on a smart card in communication with the client, and the servlet; receiving a request from the browser applet running on the client; checking session state variables for a servlet receiving the request; executing functionality associated with the request based on information associated with the session state variables; determining whether to return control to the browser applet; wherein if it is determined not to return control to the browser applet running on the client, the method includes: storing a state associated with the servlet in the session state variables; and transmitting both a command and data to the browser applet; storing a state associated with the servlet in the session state variables; and transmitting both a command and data to the browser applet; and wherein if it is determined to return control to the browser applet running on the client, then the method further includes returning a command to the browser applet to signify that processing is complete; wherein transmitting both a command and data to the browser applet includes: causing the browser applet to forward the data to the smart card in communication with the client; and receiving a response from the smart card forwarded by the browser applet; causing the browser applet to forward the data to the smart card in communication with the client; and receiving a response from the smart card forwarded by the browser applet;
A method, performed by a Memory Merging Function , for merging memory pages , wherein the memory pages are comprised in a set of memory blades , wherein a hardware system comprises the set of memory blades and a set of computing pools , wherein the set of memory blades and the set of computing pools are interconnected with each other, wherein the set of computing pools comprises computing units , wherein at least one instance of an operating system executes on the hardware system , wherein the Memory Merging Function is independent of the operating system , wherein the method comprises: finding (A010), among the memory pages, a first and a second memory page , wherein the first and second memory pages include an identical information, wherein the first and second memory pages are associated with at least one computing unit of the computing units ; obtaining (A020) a respective memory blade parameter relating to memory blade of the first and second memory pages ; obtaining (A030) a respective latency parameter relating to latency for accessing, by the at least one computing unit , the first and second memory pages ; and releasing (A050) at least one of the first and second memory pages based on the respective memory blade parameter of the first and second memory pages and the respective latency parameter of the first and second memory pages . finding (A010), among the memory pages, a first and a second memory page , wherein the first and second memory pages include an identical information, wherein the first and second memory pages are associated with at least one computing unit of the computing units ; obtaining (A020) a respective memory blade parameter relating to memory blade of the first and second memory pages ; obtaining (A030) a respective latency parameter relating to latency for accessing, by the at least one computing unit , the first and second memory pages ; and releasing (A050) at least one of the first and second memory pages based on the respective memory blade parameter of the first and second memory pages and the respective latency parameter of the first and second memory pages .
Process for recovering a non-ferrous metal from a first solid residue comprising iron, the process comprising: mixing the first solid residue with a second solid residue comprising the non-ferrous metal and sulphur thereby obtaining a particulate mixture , roasting the particulate mixture at a temperature of at least 650 °C to obtain a roasted mixture , and leaching the roasted mixture in a liquid at a pH of at least 5.5 to obtain a solution enriched with the non-ferrous metal. mixing the first solid residue with a second solid residue comprising the non-ferrous metal and sulphur thereby obtaining a particulate mixture , roasting the particulate mixture at a temperature of at least 650 °C to obtain a roasted mixture , and leaching the roasted mixture in a liquid at a pH of at least 5.5 to obtain a solution enriched with the non-ferrous metal.
A method for transmitting a power headroom report, PHR, by a user equipment, UE, in a mobile communication system, the method comprising: receiving PHR configuration information for a dual connectivity of a first eNB and a second eNB, wherein the first eNB is a first base station and the second eNB is a second base station; if a pathloss of at least one activated serving cell of any medium access control, MAC, entity of the UE has changed more than a threshold, triggering , at a first MAC entity for the first base station in a first timing and at a second MAC entity for the second base station in a second timing different from the first timing, a dual connectivity PHR for the first base station and the second base station containing PHR information for the first base station and the second base station based on the PHR configuration information and a dual connectivity PHR format; and if a periodic PHR timer expires, triggering the dual connectivity PHR at either the first MAC entity or the second MAC entity where the periodic PHR timer expired. receiving PHR configuration information for a dual connectivity of a first eNB and a second eNB, wherein the first eNB is a first base station and the second eNB is a second base station; if a pathloss of at least one activated serving cell of any medium access control, MAC, entity of the UE has changed more than a threshold, triggering , at a first MAC entity for the first base station in a first timing and at a second MAC entity for the second base station in a second timing different from the first timing, a dual connectivity PHR for the first base station and the second base station containing PHR information for the first base station and the second base station based on the PHR configuration information and a dual connectivity PHR format; and if a periodic PHR timer expires, triggering the dual connectivity PHR at either the first MAC entity or the second MAC entity where the periodic PHR timer expired.
A coating die for a lithium secondary battery, the coating die comprising an upper die plate , a lower die plate , and a shim assembly interposed between the upper die plate and the lower die plate , wherein the shim assembly includes a body shim and one or more spacer shims , and wherein the spacer shims are formed to be individually removable from the coating die, characterized in that the spacer shims are individually coupled with the upper die plate , the lower die plate , or the upper die plate and the lower die plate , and include an insulated flow passage that is positioned so as to correspond to an insulating liquid injection path of the upper die plate , stores and discharges the insulating liquid injected from the injection path of the upper die plate . the coating die comprising an upper die plate , a lower die plate , and a shim assembly interposed between the upper die plate and the lower die plate , wherein the shim assembly includes a body shim and one or more spacer shims , and wherein the spacer shims are formed to be individually removable from the coating die, characterized in that the spacer shims are individually coupled with the upper die plate , the lower die plate , or the upper die plate and the lower die plate , and include an insulated flow passage that is positioned so as to correspond to an insulating liquid injection path of the upper die plate , stores and discharges the insulating liquid injected from the injection path of the upper die plate .
A microfluidic flow rate control device for controlling a flow rate of a fluid flowing through a microfluidic conduit , the control device comprises: an inlet terminal for fluid input and an outlet terminal for fluid output; the microfluidic conduit that fluidly connects the inlet terminal with the outlet terminal ; at least one pump arranged in the microfluidic conduit for pumping the fluid through the microfluidic conduit at a flow rate; at least one valve arranged in the microfluidic conduit , the valve being configured to adjust the flow rate of the fluid by modifying its passageway; a flow sensor arranged in the microfluidic conduit , the flow sensor being configured to measure the flow rate within the microfluidic conduit ; and wherein the microfluidic flow rate control device comprises a controller that is configured to receive the flow rate measured by the flow sensor , compare the measured flow rate with a predefined flow rate and instruct at least one of the at least one pump and the at least one valve to modify a pumping power of the pump and the passageway of the valve, respectively, based on the result of the comparison so as to minimize the difference between the flow rate measured and the predefined flow rate. an inlet terminal for fluid input and an outlet terminal for fluid output; the microfluidic conduit that fluidly connects the inlet terminal with the outlet terminal ; at least one pump arranged in the microfluidic conduit for pumping the fluid through the microfluidic conduit at a flow rate; at least one valve arranged in the microfluidic conduit , the valve being configured to adjust the flow rate of the fluid by modifying its passageway; a flow sensor arranged in the microfluidic conduit , the flow sensor being configured to measure the flow rate within the microfluidic conduit ; and wherein the microfluidic flow rate control device comprises a controller that is configured to receive the flow rate measured by the flow sensor , compare the measured flow rate with a predefined flow rate and instruct at least one of the at least one pump and the at least one valve to modify a pumping power of the pump and the passageway of the valve, respectively, based on the result of the comparison so as to minimize the difference between the flow rate measured and the predefined flow rate.
Linear actuator comprising an electrically-controlled shape memory alloy coil spring that has an external diameter (D) and is made with a shape memory alloy coiled wire having a thickness (T), the ratio (Φ) between said external diameter (D) and said wire thickness (T) being comprised between 4 and 10, characterized in that said coil spring is provided with a crimped terminal at each extremity, each of said crimped terminals comprising a crimping component , that is deformed and crimped on the terminal portion of the coil spring , and a fitting portion suitable to mount the spring into the linear actuator that is provided with corresponding engagement means, said fitting portion being formed on a separate engaging member of the crimped terminal, said engaging member including a connection portion configured in size and material to be fitted in said terminal portion of the coil spring and to keep it undeformed when the terminal is crimped.
A fibre-optic hydrophone comprising: - an incompressible tubular body , the tubular body generally having a geometry of a cylindrical shell defining an axis, - a deflectable outer wall , arranged to surround the tubular body at a distance thereof, and defining an axis that is arranged to substantially coincide with the axis of the tubular body, - an optical fibre coil arranged on an outer surface of the deflectable outer wall , and - a first end lid and a second end lid arranged to seal the tubular body and the deflectable outer wall at a first end and a second end thereof, respectively, the first end lid and the second end lid being incompressible, wherein: - an outer cavity is defined by an inner surface of the deflectable outer wall, an outer surface of the tubular body , the first end lid , and the second end lid , and - an inner cavity is defined by an inner surface of the tubular body , the first end lid , and the second end lid , wherein the outer cavity is in fluid communication with the inner cavity via one or more passages in the tubular body, the outer cavity and the inner cavity being filled with a fluid, the one or more passages being configured to cause a restriction on flow of the fluid between the cavities such that the one or more passages function as a mechanical acoustic low pass filter having a high cut-off frequency response, the fibre-optic hydrophone being characterized in that the cut-off frequency of the low-pass filter is in a range between 2kHz and 10kHz. - an incompressible tubular body , the tubular body generally having a geometry of a cylindrical shell defining an axis, - a deflectable outer wall , arranged to surround the tubular body at a distance thereof, and defining an axis that is arranged to substantially coincide with the axis of the tubular body, - an optical fibre coil arranged on an outer surface of the deflectable outer wall , and - a first end lid and a second end lid arranged to seal the tubular body and the deflectable outer wall at a first end and a second end thereof, respectively, the first end lid and the second end lid being incompressible, wherein: - an outer cavity is defined by an inner surface of the deflectable outer wall, an outer surface of the tubular body , the first end lid , and the second end lid , and - an inner cavity is defined by an inner surface of the tubular body , the first end lid , and the second end lid , wherein
An alloy composition for constructing an arc-resistant shield positioned in a vacuum switchgear chamber, the alloy composition comprising: a first. component selected from the group consisting of pure copper, copper alloy, a chemically compatible element to copper, and mixtures thereof; a second component selected from the group consisting of stainless steel, niobium, molybdenum, vanadium, ferrochrome in a form of pre-alloyed powder, carbide, and alloys and mixtures thereof; a melting range of 100°C or greater between a solidus temperature and a liquidus temperature; the solidus temperature of 900°C or greater; a multi-phase microstructure; and an ability to form a smooth surface when rapidly cooled following arc melting, wherein pure chromium is excluded as a component of the alloy composition. a first. component selected from the group consisting of pure copper, copper alloy, a chemically compatible element to copper, and mixtures thereof; a second component selected from the group consisting of stainless steel, niobium, molybdenum, vanadium, ferrochrome in a form of pre-alloyed powder, carbide, and alloys and mixtures thereof; a melting range of 100°C or greater between a solidus temperature and a liquidus temperature; the solidus temperature of 900°C or greater; a multi-phase microstructure; and an ability to form a smooth surface when rapidly cooled following arc melting, wherein pure chromium is excluded as a component of the alloy composition.
A method of contouring a build in a powder bed , comprising: scanning a first diode laser fiber array comprising a plurality of diode lasers along an outer boundary of a layer of the build in the powder bed , the first diode laser fiber array independently operable from a second diode laser fiber array ; emitting a plurality of laser beams from selected fibers of the first diode laser fiber array during the scanning of the first diode laser fiber array along the outer boundary of the build in the powder bed ; simultaneously melting a powder in the powder bed corresponding to the outer boundary of the layer of the build to contour the layer of the build; emitting a plurality of laser beams from selected fibers of the second diode laser fiber array comprising a plurality of diode lasers onto the powder bed , the selected fibers of the second diode laser fiber array corresponding to a pattern of the layer of the build; and simultaneously melting the powder in the powder bed corresponding to the pattern of the layer of the build prior to emitting the plurality of laser beams from the selected fibers of the first diode laser fiber array . scanning a first diode laser fiber array comprising a plurality of diode lasers along an outer boundary of a layer of the build in the powder bed , the first diode laser fiber array independently operable from a second diode laser fiber array ; emitting a plurality of laser beams from selected fibers of the first diode laser fiber array during the scanning of the first diode laser fiber array along the outer boundary of the build in the powder bed ; simultaneously melting a powder in the powder bed corresponding to the outer boundary of the layer of the build to contour the layer of the build; emitting a plurality of laser beams from selected fibers of the second diode laser fiber array comprising a plurality of diode lasers onto the powder bed , the selected fibers of the second diode laser fiber array corresponding to a pattern of the layer of the build; and simultaneously melting the powder in the powder bed corresponding to the pattern of the layer of the build prior to emitting the plurality of laser beams from the selected fibers of the first diode laser fiber array .