mhurhangee/ep-ind-claims huggingface dataset:
A power supply unit for an aerosol inhaler comprising: a power supply configured to supply power to a load for atomizing an aerosol source; a first DC / DC converter connected to the power supply; a second DC / DC converter connected to the power supply and different from the first DC / DC converter; and a circuit board on which the first DC / DC converter and the second DC / DC converter are mounted, characterized in that as viewed from a first direction perpendicular to a surface of the circuit board on which the first DC / DC converter and the second DC / DC converter are mounted, the circuit board substantially has an L-shape as a whole defined by a connection portion; by a first portion extending from a front end surface of the connection portion in a forward direction perpendicular to the first direction; and by a second portion extending from an upper end surface of the connection portion in an upward direction perpendicular to the first direction and the forward direction, the first DC / DC converter is mounted on the first portion, and the second DC / DC converter is mounted on the second portion. a power supply configured to supply power to a load for atomizing an aerosol source; a first DC / DC converter connected to the power supply; a second DC / DC converter connected to the power supply and different from the first DC / DC converter; and a circuit board on which the first DC / DC converter and the second DC / DC converter are mounted, characterized in that as viewed from a first direction perpendicular to a surface of the circuit board on which the first DC / DC converter and the second DC / DC converter are mounted, the circuit board substantially has an L-shape as a whole defined by a connection portion; by a first portion extending from a front end surface of the connection portion in a forward direction perpendicular to the first direction; and by a second portion extending from an upper end surface of the connection portion in an upward direction perpendicular to the first direction and the forward direction, the first DC / DC converter is mounted on the first portion, and the second DC / DC converter is mounted on the second portion.
Device for evaluating signals from surroundings capture sensors (21, 22, 23) for regulating and/or controlling a trajectory of a vehicle that can be operated in an automated manner, comprising • at least a first path and a second pad, wherein one path (P1, P2) comprises a signal line and a signal evaluation, wherein • the first path comprises a first evaluation unit which is designed to evaluate the signals in a first capture range of the surroundings capture sensors (21, 22, 23) and to determine first regulating and/or control signals, • the second path comprises a second evaluation unit which is designed to evaluate the signals in a second capture range of the surroundings capture sensors (21, 22, 23) on the basis of a measurement task, wherein the first capture range comprises the second capture range, and to determine second regulating and/or control signals, wherein the device is designed to provide actuators of the vehicle with the second regulating and/or control signals if an evaluation by the first evaluation unit differs from the evaluation by the second evaluation unit, characterized in that the first evaluation unit executes a machine learning algorithm and the second evaluation unit executes a deterministic algorithm. • at least a first path and a second pad, wherein one path (P1, P2) comprises a signal line and a signal evaluation, wherein • the first path comprises a first evaluation unit which is designed to evaluate the signals in a first capture range of the surroundings capture sensors (21, 22, 23) and to determine first regulating and/or control signals, • the second path comprises a second evaluation unit which is designed to evaluate the signals in a second capture range of the surroundings capture sensors (21, 22, 23) on the basis of a measurement task, wherein the first capture range comprises the second capture range, and to determine second regulating and/or control signals, wherein the device is designed to provide actuators of the vehicle with the second regulating and/or control signals if an evaluation by the first evaluation unit differs from the evaluation by the second evaluation unit, characterized in that the first evaluation unit executes a machine learning algorithm and the second evaluation unit executes a deterministic algorithm.
A delayed release composition comprising an enteric coated tablet, wherein the tablet comprises: linaclotide; Ca 2+; histidine; and polyvinyl alcohol. linaclotide; Ca 2+; histidine; and polyvinyl alcohol.
A computer-implemented method for branching from an original virtual machine to one or more clone virtual machines to consider divergent states, the method comprising: receiving application code for execution on the original virtual machine, wherein the application code includes at least one branch that results in two or more possible states of the virtual machine; executing the original virtual machine including the received application code; identifying a branch before its execution in the application code running on the original virtual machine that results in two or more possible states of the virtual machine, wherein identifying the branch comprises receiving information from the application code that indicates a location where the application will branch into multiple possible states; creating one or more clone virtual machines that duplicate a current state of the original virtual machine and then each process one path of the branch to explore a subsequent state in the created clone virtual machine; setting up each clone virtual machine to execute a different path of the identified branch; executing the original virtual machine and cloned virtual machines to explore at least two paths of the identified branch in parallel; and when the original virtual machine reaches the branch, determining a path of the branch to take based on the current state of the original virtual machine and any conditions of the branch and selecting the determined branch and copying the execution result of the determined branch to the original virtual machine, wherein the preceding steps are performed by at least one processor. receiving application code for execution on the original virtual machine, wherein the application code includes at least one branch that results in two or more possible states of the virtual machine; executing the original virtual machine including the received application code; identifying a branch before its execution in the application code running on the original virtual machine that results in two or more possible states of the virtual machine, wherein identifying the branch comprises receiving information from the application code that indicates a location where the application will branch into multiple possible states; creating one or more clone virtual machines that duplicate a current state of the original virtual machine and then each process one path of the branch to explore a subsequent state in the created clone virtual machine; setting up each clone virtual machine to execute a different path of the identified branch; executing the original virtual machine and cloned virtual machines to explore at least two paths of the identified branch in parallel; and when the original virtual machine reaches the branch, determining a path of the branch to take based on the current state of the original virtual machine and any conditions of the branch and selecting the determined branch and copying the execution result of the determined branch to the original virtual machine, wherein the preceding steps are performed by at least one processor.
A digital pathology apparatus, comprising: a bearing system (40, 50) comprising a left side bearing set and a right side bearing set; a housing comprising a left side and a right side, the left side comprising a left lower edge and the right side comprising a right lower edge, wherein the left lower edge and the right lower edge are substantially parallel to each other; a left side rail secured to the left lower edge of the housing the left side rail configured to engage the left side bearing set, wherein the left side rail is configured to slide along the left side bearing set to position the housing in a closed position or an open position; a right side rail secured to the right lower edge of the housing the right side rail configured to engage the right side bearing set, wherein the right side rail is configured to slide along the right side bearing set to position the housing in the closed position or the open position; a latching system configured to secure the housing in the closed position; and a sensor system configured to determine when the housing is in the closed position and when the housing is in the open position. a bearing system (40, 50) comprising a left side bearing set and a right side bearing set; a housing comprising a left side and a right side, the left side comprising a left lower edge and the right side comprising a right lower edge, wherein the left lower edge and the right lower edge are substantially parallel to each other; a left side rail secured to the left lower edge of the housing the left side rail configured to engage the left side bearing set, wherein the left side rail is configured to slide along the left side bearing set to position the housing in a closed position or an open position; a right side rail secured to the right lower edge of the housing the right side rail configured to engage the right side bearing set, wherein the right side rail is configured to slide along the right side bearing set to position the housing in the closed position or the open position; a latching system configured to secure the housing in the closed position; and a sensor system configured to determine when the housing is in the closed position and when the housing is in the open position.
Transfer device for shuttling a Nuclear Magnetic Resonance (=NMR) sample container between at least two coaxially arranged NMR magnet systems (11'; 11") of an NMR spectrometer, the transfer device comprising a guide tube configured to be positioned in a central bore of the coaxial magnet systems (11'; 11"), a shuttle assembly being arranged inside the guide tube for securely holding and shuttling the NMR sample container and a drive system comprising a pulling drive and a winch cord (15") being attached to the drive system on one side and to the shuttle assembly on the other side, such that the shuttle assembly can travel inside the guide tube between the coaxial magnet systems (11'; 11"), characterized in that the transfer device comprises a gas-tight body above the shuttle assembly and a pneumatic pressurizing arrangement with an entry for pressurized gas arranged on the gas-tight body for maintaining the winch cord (15") under tension, and that the shuttle assembly comprises a piston design being moveable along the common axis of the coaxial magnet systems (11'; 11") under the influence of the pressure. that the transfer device comprises a gas-tight body above the shuttle assembly and a pneumatic pressurizing arrangement with an entry for pressurized gas arranged on the gas-tight body for maintaining the winch cord (15") under tension, and that the shuttle assembly comprises a piston design being moveable along the common axis of the coaxial magnet systems (11'; 11") under the influence of the pressure.
Method for measuring the viscosity of a product, utilizing a viscosity measurement device comprising an oscillating element comprising a collection end arranged for being introduced at least partially into said product and an excitation end coupled to means (12,13,14), called excitation means, producing the oscillation of said oscillating element by means of an electrical signal, called excitation signal, the oscillation of said oscillating element producing an electrical signal, called reception signal, in means (15,16,17), called reception means, said viscosity of the product being determined as a function of said reception signal, said method comprising: - a first phase of determination of a phase shift, called optimal phase shift, between said reception signal and said excitation signal corresponding to a maximum amplitude of oscillations of said oscillating element, and - a second phase, called measurement phase, comprising oscillating said oscillating element by means of said excitation signal, said excitation signal having a phase shift substantially identical to said optimal phase shift with respect to said reception signal so as to maximize the oscillations of said oscillating element. the method being characterized in that said phase of determination of an optimal phase shift is common to several measurement phases, said phase of determination of the optimal phase shift providing a plurality of optimal phase shifts, each of the optimal phase shifts corresponding to a viscosity range used during subsequent measurement phases, the method comprising moreover, for a given measurement device, a selection of a viscosity range and of the predetermined optimal phase shift for said viscosity range during a measurement phase. - a first phase of determination of a phase shift, called optimal phase shift, between said reception signal and said excitation signal corresponding to a maximum amplitude of oscillations of said oscillating element, and - a second phase, called measurement phase, comprising oscillating said oscillating element by means of said excitation signal, said excitation signal having a phase shift substantially identical to said optimal phase shift with respect to said reception signal so as to maximize the oscillations of said oscillating element.
Use of apparatus for splitting an electromagnetic field received by an antenna system (2, 3), wherein the apparatus comprises: one or more blades (10a-10f) configured to split the electromagnetic field into a plurality of sections; wherein each of the one or more blades comprises a first and a second surface intersecting at an edge; the use comprising positioning a first blade of the one or more blades in the focal region of the antenna system, such that the one or more blades are arranged to split an electromagnetic field received by the antenna system into a plurality of sections corresponding to separate beams and to redirect each of said plurality of sections away from the focal region of the antenna system; wherein the edges of the one or more blades are configured to split the field by redirecting a first section of the field incident on the first surface in a first direction and a second section of the field incident on the second surface in a second direction, different to the first direction. one or more blades (10a-10f) configured to split the electromagnetic field into a plurality of sections; wherein each of the one or more blades comprises a first and a second surface intersecting at an edge; the use comprising positioning a first blade of the one or more blades in the focal region of the antenna system, such that the one or more blades are arranged to split an electromagnetic field received by the antenna system into a plurality of sections corresponding to separate beams and to redirect each of said plurality of sections away from the focal region of the antenna system; wherein the edges of the one or more blades are configured to split the field by redirecting a first section of the field incident on the first surface in a first direction and a second section of the field incident on the second surface in a second direction, different to the first direction.
A bucket system comprising: a bucket for liquids, a toolbox attachable to the bucket at a bucket attachment characterised by a stand having a height adjusting mechanism on which the bucket is mountable; wherein the bucket is reversibly mountable on the stand at a bucket mounting; and wherein the bucket mounting comprises a mounting bracket on the stand. a bucket for liquids, a toolbox attachable to the bucket at a bucket attachment characterised by a stand having a height adjusting mechanism on which the bucket is mountable; wherein the bucket is reversibly mountable on the stand at a bucket mounting; and wherein the bucket mounting comprises a mounting bracket on the stand.
A power and control unit for operation control of a fluid displacement device that is provided with an electric motor, said power and control unit comprising: - a power circuit for driving the electric motor, wherein the power circuit comprises a power supply unit providing a direct current output (dc voltage) and an inverter inverting said dc voltage into at least one driving voltage, wherein the at least one driving voltage is defined by said at least one control signal to the inverter; - means for determining torque and rotation speed of the electric motor; - a memory for storage of characteristics of the fluid displacement device; - an estimator for estimating a fluid flow of the fluid displacement device based on said torque and rotation speed of the electric motor and at least one characteristic of the fluid displacement device, and - processor means for defining at least one control signal to said power circuit based on said determined fluid flow, therewith controlling operation of the fluid displacement device, wherein said means for determining torque and rotation speed comprise: - means for sensing a voltage and a current in said power and control unit, and - a processor for deriving said torque and rotation speed from said sensed voltage and current, characterised in that said means for sensing the voltage and current are integrated into the power supply unit of the inverter, said phase inverter is provided with a heat sink; and said power and control unit is provided with a hermetic, ammonia-resistant enclosure. - a power circuit for driving the electric motor, wherein the power circuit comprises a power supply unit providing a direct current output (dc voltage) and an inverter inverting said dc voltage into at least one driving voltage, wherein the at least one driving voltage is defined by said at least one control signal to the inverter; - means for determining torque and rotation speed of the electric motor; - a memory for storage of characteristics of the fluid displacement device; - an estimator for estimating a fluid flow of the fluid displacement device based on said torque and rotation speed of the electric motor and at least one characteristic of the fluid displacement device, and - processor means for defining at least one control signal to said power circuit based on said determined fluid flow, therewith controlling operation of the fluid displacement device, - means for sensing a voltage and a current in said power and control unit, and - a processor for deriving said torque and rotation speed from said sensed voltage and current,
Pneumatic tube or hose having a longitudinal axis along a longitudinal extension of the pneumatic tube or hose and having two ends each provided with a socket (30; 66) adapted for releasable airtight connection to a pneumatic port (26; 64) of a vacuum generation unit (2; 48) and/or to a pneumatic port (42; 64) of a vacuum utilization device (32; 44), respectively, wherein at least one of the sockets (30; 66) of the pneumatic tube or hose comprises at least one magnetic element adapted for interaction with at least one respective magnetic element provided in a vacuum generation unit (2; 48) and/or in a vacuum utilization device (32; 44) in order to secure the socket (30; 66) of the pneumatic tube or hose to the pneumatic port (26; 42; 64) of the vacuum generation unit (2; 48) or of the vacuum utilization device (32; 44) by means of magnetic force (82; 94; 100), characterized in that the magnetic force acts either in a circumferential direction extending in a plane running essentially obliquely, preferably perpendicular, to the longitudinal axis of the pneumatic tube or hose, and around the longitudinal axis or in a radial direction extending essentially obliquely, preferably perpendicular to the longitudinal axis of the pneumatic tube or hose. wherein at least one of the sockets (30; 66) of the pneumatic tube or hose comprises at least one magnetic element adapted for interaction with at least one respective magnetic element provided in a vacuum generation unit (2; 48) and/or in a vacuum utilization device (32; 44) in order to secure the socket (30; 66) of the pneumatic tube or hose to the pneumatic port (26; 42; 64) of the vacuum generation unit (2; 48) or of the vacuum utilization device (32; 44) by means of magnetic force (82; 94; 100), characterized in that the magnetic force acts either in a circumferential direction extending in a plane running essentially obliquely, preferably perpendicular, to the longitudinal axis of the pneumatic tube or hose, and around the longitudinal axis or in a radial direction extending essentially obliquely, preferably perpendicular to the longitudinal axis of the pneumatic tube or hose.
A method comprising: receiving, by an access point, AP, a first authentication request from a station, STA, the first authentication request requesting authentication of the STA, wherein the first authentication request is a fast initial link setup, FILS, authentication request including extensible authentication protocol over local area network, EAPOL, start with security parameters for a FILS handshake; transmitting, by the AP, a second authentication request to a server, the second authentication request including extensible authentication protocol, EAP, authentication signaling; receiving, by the AP, a first authentication response from the server in response to the second authentication request, the first authentication response including an indication that authentication of the STA was successful; transmitting, by the AP, a second authentication response to the STA; and receiving, by the AP, an association request that includes a message integrity code, MIC, from the STA, wherein a master session key, MSK, is generated in the station, the MSK is also generated in the server, a pairwise master key, PMK, is generated in the station, the PMK is also generated in the server and the PMK is transmitted from the server to the AP in the first authentication response. receiving, by an access point, AP, a first authentication request from a station, STA, the first authentication request requesting authentication of the STA, wherein the first authentication request is a fast initial link setup, FILS, authentication request including extensible authentication protocol over local area network, EAPOL, start with security parameters for a FILS handshake; transmitting, by the AP, a second authentication request to a server, the second authentication request including extensible authentication protocol, EAP, authentication signaling; receiving, by the AP, a first authentication response from the server in response to the second authentication request, the first authentication response including an indication that authentication of the STA was successful; transmitting, by the AP, a second authentication response to the STA; and receiving, by the AP, an association request that includes a message integrity code, MIC, from the STA, wherein a master session key, MSK, is generated in the station, the MSK is also generated in the server, a pairwise master key, PMK, is generated in the station, the PMK is also generated in the server and the PMK is transmitted from the server to the AP in the first authentication response.