mhurhangee/ep-ind-claims huggingface dataset:
A device for generating energy for use in the electrical ablation of tissue comprising: a voltage source; a capacitor bank having at least a first capacitor and one or more additional capacitors, the capacitor bank accessible at a plurality of locations (624, 626, 628) to operate as a plurality of output sources; and an output stage coupling the capacitor bank to a plurality of output nodes (A, B, C) with an output path for each output node, the output stage further comprising: a plurality of power selector switches coupled to the capacitor bank at the plurality of locations (624, 626, 628), the plurality of power selector switches arranged as sets of switch arrays each having a switch dedicated to each output path allowing independent and simultaneous access to the capacitor bank to derive a plurality of outputs at the same or different voltage levels; and a plurality of electrode selector switch pairs (654, 656) each associated with a respective one of the plurality of output nodes (A, B, C), each electrode selector switch pair (654, 656) including a high side switch coupled to the respective one of the output nodes (A, B, C) and a low side switch coupled to a reference. a voltage source; a capacitor bank having at least a first capacitor and one or more additional capacitors, the capacitor bank accessible at a plurality of locations (624, 626, 628) to operate as a plurality of output sources; and an output stage coupling the capacitor bank to a plurality of output nodes (A, B, C) with an output path for each output node, the output stage further comprising: a plurality of power selector switches coupled to the capacitor bank at the plurality of locations (624, 626, 628), the plurality of power selector switches arranged as sets of switch arrays each having a switch dedicated to each output path allowing independent and simultaneous access to the capacitor bank to derive a plurality of outputs at the same or different voltage levels; and a plurality of electrode selector switch pairs (654, 656) each associated with a respective one of the plurality of output nodes (A, B, C), each electrode selector switch pair (654, 656) including a high side switch coupled to the respective one of the output nodes (A, B, C) and a low side switch coupled to a reference. a plurality of power selector switches coupled to the capacitor bank at the plurality of locations (624, 626, 628), the plurality of power selector switches arranged as sets of switch arrays each having a switch dedicated to each output path allowing independent and simultaneous access to the capacitor bank to derive a plurality of outputs at the same or different voltage levels; and a plurality of electrode selector switch pairs (654, 656) each associated with a respective one of the plurality of output nodes (A, B, C), each electrode selector switch pair (654, 656) including a high side switch coupled to the respective one of the output nodes (A, B, C) and a low side switch coupled to a reference.
A valve assembly comprising: a valve body including a seat, with the seat defining an outlet; a float disposed inside the valve body and movable between a first position and a second position relative to the valve body; a support coupled to the float and movable with the float between the first and second positions; and a sealing member attached to the support, with the sealing member having an engagement portion spaced from the seat when the float is in the first position, and with the engagement portion engaging the seat when the float is in the second position, the sealing member including an outer periphery; wherein the float and the support include a centering mechanism for centering the support relative to a longitudinal axis to position the engagement portion of the sealing member relative to the seat, characterized in that: the sealing member includes a plurality of extensions spaced from each other and each of the extensions have a portion extending non-tangentially from the outer periphery to respective distal ends. a valve body including a seat, with the seat defining an outlet; a float disposed inside the valve body and movable between a first position and a second position relative to the valve body; a support coupled to the float and movable with the float between the first and second positions; and a sealing member attached to the support, with the sealing member having an engagement portion spaced from the seat when the float is in the first position, and with the engagement portion engaging the seat when the float is in the second position, the sealing member including an outer periphery; wherein the float and the support include a centering mechanism for centering the support relative to a longitudinal axis to position the engagement portion of the sealing member relative to the seat, characterized in that: the sealing member includes a plurality of extensions spaced from each other and each of the extensions have a portion extending non-tangentially from the outer periphery to respective distal ends.
A pellet-shaped additive which contains bitumen and dissolves in bitumen compounds from 100°C, especially for the production of road surfaces, comprising at least 15% of cellulose fibres, at least 40% of rubber particles, at least 5% of wax, at least 1.5% of an activator for chemically cross-linking bitumen and rubber, with all specifications made in percent by weight.
A composition comprising 1) a coating, wherein the coating comprises an epoxy, an acrylic, a urethane, a silicone, a rubber, or a combination thereof; and 2) porous polymeric particles disposed in the coating, wherein the porous polymeric particles comprise a polymerized product of a reaction mixture comprising: a) a first phase comprising i) a compound of Formula HO(-CH 2 -CH -CH2-O) n -H wherein n is an integer equal to at least 1; and ii) a nonionic surfactant; b) a second phase dispersed in the first phase, wherein a volume of the first phase is greater than a volume of the second phase and wherein the second phase comprises i) a monomer composition comprising a monomer of Formula CH 2 =C(R 1)- -O[-CH 2 -CH 2 -O] p - -C(R 1)=CH 2 wherein p is an integer equal to at least 1; R 1 is a hydrogen or alkyl; and ii) a poly(propylene glycol) having a weight average molecular weight of at least 500 grams/mole, wherein the poly(propylene glycol) is removed from the polymerized product to provide the porous polymeric particles. a) a first phase comprising i) a compound of Formula HO(-CH 2 -CH -CH2-O) n -H wherein n is an integer equal to at least 1; and ii) a nonionic surfactant; i) a compound of Formula HO(-CH 2 -CH -CH2-O) n -H wherein n is an integer equal to at least 1; and ii) a nonionic surfactant; b) a second phase dispersed in the first phase, wherein a volume of the first phase is greater than a volume of the second phase and wherein the second phase comprises i) a monomer composition comprising a monomer of Formula CH 2 =C(R 1)- -O[-CH 2 -CH 2 -O] p - -C(R 1)=CH 2 wherein p is an integer equal to at least 1; R 1 is a hydrogen or alkyl; and ii) a poly(propylene glycol) having a weight average molecular weight of at least 500 grams/mole, wherein the poly(propylene glycol) is removed from the polymerized product to provide the porous polymeric particles. i) a monomer composition comprising a monomer of Formula CH 2 =C(R 1)- -O[-CH 2 -CH 2 -O] p - -C(R 1)=CH 2 wherein p is an integer equal to at least 1; R 1 is a hydrogen or alkyl; and p is an integer equal to at least 1; R 1 is a hydrogen or alkyl; and ii) a poly(propylene glycol) having a weight average molecular weight of at least 500 grams/mole, wherein the poly(propylene glycol) is removed from the polymerized product to provide the porous polymeric particles.
A camera for monitoring machine functions of a vehicle (20, 30), which is arranged on or in the vehicle (20, 30), wherein the camera includes a housing in which are arranged an objective lens and a first pane which is arranged in front of the objective lens and protects the objective lens from environmental influences, wherein at least one heating element is arranged in the housing in adjacent relationship with the first pane, characterised in that the housing is sealingly closed by a frame and the first pane held therein, that a second pane is arranged releasably on the housing on the side of the first pane that is remote from the objective lens in adjacent relationship with said pane, and that heat transfer is effected by way of a portion of the frame, against which the second pane also bears portion-wise.
A hand-held surface cleaning device, the hand-held surface cleaning device comprising: a body that extends from a first end to a second end; a handle portion defined by the body adjacent the first end; a nozzle with a dirty air inlet defined by the body adjacent the second end; a motor for generating suction and drawing air into the dirty air inlet; and a dust cup for receiving and storing debris, characterized in that the dust cup is rotatably coupled to the body of the hand-held surface cleaning device and configured to transition between a closed orientation to fluidly couple the dust cup with the dirty air inlet and the motor, and a release orientation to decouple the dust cup from the dirty air inlet and the motor to allow dirt and debris stored in the dust cup to exit from an opening of the dust cup, wherein the dust cup remains rotatably coupled to the body in the release orientation and is removable from the body, wherein the dirty air inlet and the dust cup are fluidly coupled to each other, and wherein the hand-held surface cleaning device further comprises a valve body positioned to prevent the debris from exiting the device through the dirty air inlet in an absence of suction from the motor. a body that extends from a first end to a second end; a handle portion defined by the body adjacent the first end; a nozzle with a dirty air inlet defined by the body adjacent the second end; a motor for generating suction and drawing air into the dirty air inlet; and a dust cup for receiving and storing debris, characterized in that the dust cup is rotatably coupled to the body of the hand-held surface cleaning device and configured to transition between a closed orientation to fluidly couple the dust cup with the dirty air inlet and the motor, and a release orientation to decouple the dust cup from the dirty air inlet and the motor to allow dirt and debris stored in the dust cup to exit from an opening of the dust cup, wherein the dust cup remains rotatably coupled to the body in the release orientation and is removable from the body, wherein the dirty air inlet and the dust cup are fluidly coupled to each other, and wherein the hand-held surface cleaning device further comprises a valve body positioned to prevent the debris from exiting the device through the dirty air inlet in an absence of suction from the motor.
A method for manufacturing a junction with a controlled dopant profile comprising the steps of: - forming a first semiconductor material comprising a first dopant having a first concentration and thereupon - forming a second semiconductor material comprising a second dopant, having a second concentration thereby forming a junction, wherein the second dopant is a n-type dopant, and wherein the second semiconductor material is formed at a temperature lower than the second dopant desorption temperature, and - depositing by Atomic Layer Epitaxy or Vapor Phase Doping at least a fraction of a monolayer of a precursor suitable to form the second dopant on the first semiconductor material, prior to forming the second semiconductor material, thereby increasing the second concentration of the second dopant at the junction between the first and the second semiconductor material. - forming a first semiconductor material comprising a first dopant having a first concentration and thereupon - forming a second semiconductor material comprising a second dopant, having a second concentration thereby forming a junction, wherein the second dopant is a n-type dopant, and wherein the second semiconductor material is formed at a temperature lower than the second dopant desorption temperature, and - depositing by Atomic Layer Epitaxy or Vapor Phase Doping at least a fraction of a monolayer of a precursor suitable to form the second dopant on the first semiconductor material, prior to forming the second semiconductor material, thereby increasing the second concentration of the second dopant at the junction between the first and the second semiconductor material.
An indoor navigation system comprising: a laser projector that emits one or more laser beams (121, 122, 123, 124) in four or more different directions during a time interval Δt; two or more cameras (130, 131) that capture images of spots (1, 2, 3, 4) made by the laser beams (121, 122, 123, 124) on surfaces (112, 113, 114, 115) of an indoor space during Δt, the cameras (130, 131) calibrated such that three-dimensional locations of the spots (1, 2, 3, 4) can be estimated from images captured by at least two cameras (130, 131); and, a processor in communication with the cameras (130, 131), the processor estimating position of the laser projector in the indoor space by space resection given the four or more different directions and the three-dimensional locations of the spots (1, 2, 3, 4). a laser projector that emits one or more laser beams (121, 122, 123, 124) in four or more different directions during a time interval Δt; two or more cameras (130, 131) that capture images of spots (1, 2, 3, 4) made by the laser beams (121, 122, 123, 124) on surfaces (112, 113, 114, 115) of an indoor space during Δt, the cameras (130, 131) calibrated such that three-dimensional locations of the spots (1, 2, 3, 4) can be estimated from images captured by at least two cameras (130, 131); and, a processor in communication with the cameras (130, 131), the processor estimating position of the laser projector in the indoor space by space resection given the four or more different directions and the three-dimensional locations of the spots (1, 2, 3, 4).
A process for operating a valve train of an internal combustion engine, having at least one basic camshaft, on which at least one rotationally fixed and axially displaceable cam carrier is provided between at least two axial positions, which is assigned an actuator for axial displacement at a setpoint position selected from one of the axial positions, whereby the cam carrier is assigned at least one shifting gate, which interacts with the actuator for displacing the cam carrier, whereby the actuator has an entrainer, which for displacing the cam carrier is pushed at least in the direction of a sliding groove (3, 4) of the shifting gate, whereby the sliding groove (3, 4) has an ejection ramp in an ejection area, which forces the entrainer to complete displacement from the sliding groove (3, 4), and whereby due to this forced expulsion a voltage induced in the actuator is detected, whereby the induced voltage is integrated in a certain rotational angle area (23, 24), characterised in that the rotational angle area (23, 24) is associated with the ejection area, and a confirmation signal is generated by the integrated voltage when a threshold level is exceeded.
A method for supporting migration of virtual machines across multiprotocol label switching network, comprising the steps of: a first label edge router, LER, receiving a migration enablement function, MEF, discovery message from a first virtual machine that wishes to register with the first LER; the first LER updating its own virtual machine binding database to reflect binding of the first virtual machine to the first LER; and the first LER sending a MEF advertisement message to the first virtual machine to indicate that the first LER completes the registration of the first virtual machine, wherein the first LER updates its own virtual machine binding database to reflect the binding of the first virtual machine to the first LER when the first LER finds that the virtual machine identifier, VMID, contained in the MEF discovery message falls within an IP address range for supporting the migration of virtual machines. a first label edge router, LER, receiving a migration enablement function, MEF, discovery message from a first virtual machine that wishes to register with the first LER; the first LER updating its own virtual machine binding database to reflect binding of the first virtual machine to the first LER; and the first LER sending a MEF advertisement message to the first virtual machine to indicate that the first LER completes the registration of the first virtual machine, wherein the first LER updates its own virtual machine binding database to reflect the binding of the first virtual machine to the first LER when the first LER finds that the virtual machine identifier, VMID, contained in the MEF discovery message falls within an IP address range for supporting the migration of virtual machines.
A method of continuously manufacturing single component particles or multi-component particles, which method comprises the steps of: - preparing a first solution comprising at least one component and at least one solvent, and a second solution comprising at least one anti-solvent of the at least one component comprised in the first solution; - continuously feeding said first solution and said second solution to at least one microreactor having a reaction chamber to obtain a suspension by precipitation or co-precipitation of the substances in the two solutions; - continuously feeding said suspension to a filtration system to obtain a concentrate stream; - continuously feeding said concentrate stream to a spray dryer; - atomizing said concentrate stream using at least one atomization nozzle; - drying said atomized concentrate stream to obtain particles; and - collecting said particles. - preparing a first solution comprising at least one component and at least one solvent, and a second solution comprising at least one anti-solvent of the at least one component comprised in the first solution; - continuously feeding said first solution and said second solution to at least one microreactor having a reaction chamber to obtain a suspension by precipitation or co-precipitation of the substances in the two solutions; - continuously feeding said suspension to a filtration system to obtain a concentrate stream; - continuously feeding said concentrate stream to a spray dryer; - atomizing said concentrate stream using at least one atomization nozzle; - drying said atomized concentrate stream to obtain particles; and - collecting said particles.
A distribution network node comprising an input, a processor and an output, the processor being coupled to the input and the output; the input and output both being connected to at least one telecommunications network (5, 7); wherein the processor is arranged so as to receive from the input an executable application and an associated set of requirements for the executable application; on receipt of the executable application and the associated set of requirements the processor is arranged to determine (11, 12), based upon the associated set of requirements, a set of destination network nodes to which the executable application should be distributed, wherein the destination network nodes in said set are reachable through at least one telecommunications network (5, 7) to which the output is connected and the processor is further arranged to send the executable application to the destination network nodes in said set through the output, wherein the associated set of requirements comprises information relating to at least one further network node that is connected to the at least one telecommunications network through one of said destination network nodes, wherein the further network node and the destination network nodes are of different types and the executable application, when executed on the destination network node, is adapted to cause the destination network node to exchange messages with the further network node.
A method for increasing a lifetime of an optical material exposed to a laser light source by minimizing deep ultraviolet light-induced damage in the optical material, the laser light source generating multiple pulsed laser beams having multiple wavelengths, generating at least a deep UV wavelength of <300nm and a bleaching wavelength, the method comprising: delaying at least the bleaching wavelength of the multiple laser beams with respect to other wavelengths of the multiple laser beams, wherein the delaying provides a temporal shift between the bleaching wavelength and any undelayed wavelengths such as to minimize the temporal overlap between the delayed and undelayed wavelengths; and propagating the delayed wavelength with undelayed wavelengths to depopulate a defect energy level inside a band gap of the optical material. delaying at least the bleaching wavelength of the multiple laser beams with respect to other wavelengths of the multiple laser beams, wherein the delaying provides a temporal shift between the bleaching wavelength and any undelayed wavelengths such as to minimize the temporal overlap between the delayed and undelayed wavelengths; and propagating the delayed wavelength with undelayed wavelengths to depopulate a defect energy level inside a band gap of the optical material.
Cosmetic use of a lysate of at least one microorganism of the species Bifidobacterium longum to treat and/or prevent greasy dandruff conditions of the scalp, said lysate corresponding to the entirety of the lysate obtained by lysis of said microorganism.
A composition comprising a. 5-50 weight% (solid) of polyisoprene rubber, b. 1-10 weight% (solid) of a dispersion agent, c. 3-60 weight% of a filler, and d. 15-40 wt% water wherein the weight percentages are based on the total weight of the composition and, wherein the filler comprises pumice powder or 3-40 wt% slaked lime. a. 5-50 weight% (solid) of polyisoprene rubber, b. 1-10 weight% (solid) of a dispersion agent, c. 3-60 weight% of a filler, and d. 15-40 wt% water
A steerable near-to-eye display, comprising a first curved support arm configured to rotate about a first axis; a second curved support arm configured to rotate about a second axis; a sliding mechanism, comprising: a first bracket configured to be coupled to the first curved support arm; a second bracket configured to be coupled to the second curved support arm; and a pin mechanism 830 configured to enable relative rotation about the pin mechanism 830 between the first brackets 810 and the second bracket 820; and an ocular assembly coupled to the first curved support arm and the second curved support arm via the sliding mechanism, the ocular assembly configured to display an image and configured to substantially maintain a position where the first curved support arm crosses the second curved support arm, wherein the position where the first curved support arm crosses the second curved support arm varies depending upon a position of the first support arm along the first axis, a position of the second curved support arm along the second axis and a geometry of the first curved support arm and the second curved support arm. a first bracket configured to be coupled to the first curved support arm; a second bracket configured to be coupled to the second curved support arm; and a pin mechanism 830 configured to enable relative rotation about the pin mechanism 830 between the first brackets 810 and the second bracket 820; and an ocular assembly coupled to the first curved support arm and the second curved support arm via the sliding mechanism, the ocular assembly configured to display an image and configured to substantially maintain a position where the first curved support arm crosses the second curved support arm,