mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for a reluctance-driven axial modulating mechanism including; a stator system, a rotating system rotatably mounted in said stator system, a rotor thread consisting of a helical thread affixed on said rotating system, an axial modulator having a helical thread capable of mating threadedly to said rotor thread, said axial modulator being threadedly mated to said rotor thread, an axial modulating mechanism comprised of at least one electromagnet(s) affixed to said stator system and disposed about said axial modulator, each of said electromagnets in said axial modulating mechanism comprised of windings of insulated electrically conductive material having leads through which electric current may be routed, an electronics control unit having circuits connected to the leads of at least one of said axial modulating mechanism's electromagnets, said electronics control unit circuits being configured to selectively switch electric current to each of said axial modulating mechanism's electromagnets connected to said electronics control unit in order to cause said axial modulator to rotate, and characterized by, said axial modulator having at least one reluctance protuberance(s), each of said axial modulator's reluctance protuberance(s) having a constitution that would cause said reluctance protuberance(s) to accelerate when exposed to a magnetic field. a stator system, a rotating system rotatably mounted in said stator system, a rotor thread consisting of a helical thread affixed on said rotating system, an axial modulator having a helical thread capable of mating threadedly to said rotor thread, said axial modulator being threadedly mated to said rotor thread, an axial modulating mechanism comprised of at least one electromagnet(s) affixed to said stator system and disposed about said axial modulator, each of said electromagnets in said axial modulating mechanism comprised of windings of insulated electrically conductive material having leads through which electric current may be routed, an electronics control unit having circuits connected to the leads of at least one of said axial modulating mechanism's electromagnets, said electronics control unit circuits being configured to selectively switch electric current to each of said axial modulating mechanism's electromagnets connected to said electronics control unit in order to cause said axial modulator to rotate, and characterized by, said axial modulator having at least one reluctance protuberance(s), each of said axial modulator's reluctance protuberance(s) having a constitution that would cause said reluctance protuberance(s) to accelerate when exposed to a magnetic field.
A method of constructing a color array panel for use in a display panel, comprising: individually reducing (Step 1) each stack sheet of two or more stack sheets to a respective thickness, wherein each stack sheet of the two or more stack sheets corresponds to each subpixel type in a plurality of subpixel types, and wherein at least one of the two or more stack sheets comprises light regeneration materials; stacking (Step 2) the two or more stack sheets in an order that matches an order in which the plurality of subpixel types is stacked in the display panel; repeatedly cutting (Step 3), across each of the two or more stacked sheets along a first planar direction of the two or more stacked sheets, the stacked two or more stack sheets into stacking segments, wherein each of the stacking segments is of a same specific thickness; rotating (Step 4) the stacking segments around the first planar direction by 90 degrees; and stacking (Step 4) the stacking segments along a second planar direction of the two or more stack sheets orthogonal to the first planar direction, to form the color array panel that comprises a specific pitch of the two or more stack sheets along the second planar direction, wherein the specific pitch of the two or more stack sheets in the color array panel matches a pitch of the plurality of subpixels. individually reducing (Step 1) each stack sheet of two or more stack sheets to a respective thickness, wherein each stack sheet of the two or more stack sheets corresponds to each subpixel type in a plurality of subpixel types, and wherein at least one of the two or more stack sheets comprises light regeneration materials; stacking (Step 2) the two or more stack sheets in an order that matches an order in which the plurality of subpixel types is stacked in the display panel; repeatedly cutting (Step 3), across each of the two or more stacked sheets along a first planar direction of the two or more stacked sheets, the stacked two or more stack sheets into stacking segments, wherein each of the stacking segments is of a same specific thickness; rotating (Step 4) the stacking segments around the first planar direction by 90 degrees; and stacking (Step 4) the stacking segments along a second planar direction of the two or more stack sheets orthogonal to the first planar direction, to form the color array panel that comprises a specific pitch of the two or more stack sheets along the second planar direction, wherein the specific pitch of the two or more stack sheets in the color array panel matches a pitch of the plurality of subpixels.
A particulate monitoring assembly for coupling to a conduit line supporting fluid flow, the assembly comprising: a flowline to couple to the conduit line supporting the fluid flow through the assembly, the fluid including particulate; a flow restriction within the flowline to intersect the fluid flow through the assembly; and a detector for detecting a portion of the particulate impacting a face thereof, the detector positioned at a location that is adjacent the flow restriction and comprising a transducer located within a transducer housing that accommodates the face of the detector, the transducer physically coupled to the face to facilitate the detecting of the particulate, the face being isolated from direct mechanical coupling to the structure of the flowline; wherein the transducer housing has an attenuating profile in the form of a ribbed profile for mitigating acoustical noise from another portion of the particulate impacting structure of the flowline. a flowline to couple to the conduit line supporting the fluid flow through the assembly, the fluid including particulate; a flow restriction within the flowline to intersect the fluid flow through the assembly; and a detector for detecting a portion of the particulate impacting a face thereof, the detector positioned at a location that is adjacent the flow restriction and comprising a transducer located within a transducer housing that accommodates the face of the detector, the transducer physically coupled to the face to facilitate the detecting of the particulate, the face being isolated from direct mechanical coupling to the structure of the flowline; wherein the transducer housing has an attenuating profile in the form of a ribbed profile for mitigating acoustical noise from another portion of the particulate impacting structure of the flowline.
Method for the producing a fluid component of a food base material, in particular ice cream base material, in a preparation device with - a steam generation unit for providing steam, - a discharge unit for discharging the steam and - a steam treatment unit arranged in the direction of flow of the steam between an outlet of the steam generation unit and an inlet of the discharge unit, with a heating device for heating the steam, with the steps - combining at least two components of the fluid component in a mixing vessel, - monitoring the temperature of the fluid component, - warming up the steam provided by the steam generation unit in the steam treatment unit, - introduction of the heated steam into the fluid component via the discharge unit, - controlling the introduction of steam depending on the temperature of the fluid component. - a steam generation unit for providing steam, - a discharge unit for discharging the steam and - a steam treatment unit arranged in the direction of flow of the steam between an outlet of the steam generation unit and an inlet of the discharge unit, with a heating device for heating the steam, - combining at least two components of the fluid component in a mixing vessel, - monitoring the temperature of the fluid component, - warming up the steam provided by the steam generation unit in the steam treatment unit, - introduction of the heated steam into the fluid component via the discharge unit, - controlling the introduction of steam depending on the temperature of the fluid component.
A computer-implemented method for an image-assisted medical application, the method comprising: acquiring a first image of at least one body part of a patient, the first image being captured with an endoscope and being associated with sensor data, the sensor data being indicative of a first position and orientation of the endoscope; detecting if the first image includes an image of obscuring matter, such that the first image includes an image of a leaking body fluid, debris or smoke from ablation, wherein the image of the obscuring matter obscures the at least one body part, or a portion thereof; determining, upon detecting that the first image includes an image of obscuring matter, a second image based on a sequence of historic images and based on the first position and orientation of the endoscope, wherein the historic images of the sequence of historic images each have image capturing times earlier than the first image; and generating a virtual image of the at least one body part based on the determined second image. acquiring a first image of at least one body part of a patient, the first image being captured with an endoscope and being associated with sensor data, the sensor data being indicative of a first position and orientation of the endoscope; detecting if the first image includes an image of obscuring matter, such that the first image includes an image of a leaking body fluid, debris or smoke from ablation, wherein the image of the obscuring matter obscures the at least one body part, or a portion thereof; determining, upon detecting that the first image includes an image of obscuring matter, a second image based on a sequence of historic images and based on the first position and orientation of the endoscope, wherein the historic images of the sequence of historic images each have image capturing times earlier than the first image; and generating a virtual image of the at least one body part based on the determined second image.
Sensor device for a motor vehicle having - at least one optical sensor and having - a protective screen mounted upstream of the sensor in a viewing direction of the sensor; - a fluid dispenser for applying a fluid to an outer surface of the protective screen facing away from the sensor; - wherein the protective screen is rotatably mounted about an axis of rotation and can be set in rotation by means of a drive device; - the axis of rotation of the protective screen is parallel to the viewing direction of the sensor; and - in a plan view of the protective screen, the sensor is positioned offset to the axis of rotation of the protective screen. wherein the sensor device is characterized by the following features: - the sensor device comprises an air blower nozzle for blowing compressed air onto the outer surface of the protective screen; and - in a plan view of the outer surface of the protective screen, the air blower nozzle is arranged downstream of the fluid dispenser in the direction of rotation of the protective screen. - at least one optical sensor and having - a protective screen mounted upstream of the sensor in a viewing direction of the sensor; - a fluid dispenser for applying a fluid to an outer surface of the protective screen facing away from the sensor; - wherein the protective screen is rotatably mounted about an axis of rotation and can be set in rotation by means of a drive device; - the axis of rotation of the protective screen is parallel to the viewing direction of the sensor; and - in a plan view of the protective screen, the sensor is positioned offset to the axis of rotation of the protective screen. - the sensor device comprises an air blower nozzle for blowing compressed air onto the outer surface of the protective screen; and - in a plan view of the outer surface of the protective screen, the air blower nozzle is arranged downstream of the fluid dispenser in the direction of rotation of the protective screen.
A composition comprising component: a compound represented by the formula wherein R 1 and R 2 are each independently an alkyl group having 5 - 21 carbon atoms or an alkenyl group having 5 - 21 carbon atoms, R 3 and R 4 are each independently a hydrogen atom, an alkyl group having 1 - 22 carbon atoms or an alkenyl group having 2 - 22 carbon atoms, z is 7 or 8, x and y are each independently an integer of 2 - 4, or a salt thereof, and component: at least one kind of surfactant selected from the group consisting of an anionic surfactant having a carboxyl group, an amphoteric surfactant and a nonionic surfactant wherein the component is contained in a proportion of 0.01 - 10 wt% and is contained in a proportion of 0.01 - 50 wt%, relative to the total amount of the composition. R 1 and R 2 are each independently an alkyl group having 5 - 21 carbon atoms or an alkenyl group having 5 - 21 carbon atoms, R 3 and R 4 are each independently a hydrogen atom, an alkyl group having 1 - 22 carbon atoms or an alkenyl group having 2 - 22 carbon atoms, z is 7 or 8, x and y are each independently an integer of 2 - 4, or a salt thereof, and component: at least one kind of surfactant selected from the group consisting of an anionic surfactant having a carboxyl group, an amphoteric surfactant and a nonionic surfactant wherein the component is contained in a proportion of 0.01 - 10 wt% and is contained in a proportion of 0.01 - 50 wt%, relative to the total amount of the composition.
Floating structure of the type made up of floating, modular, parallelepiped blocks, whose vertical edges are fitted with lugs in which connection elements (2, 20) are inserted, each one including a rod inserted in the lugs of several adjacent blocks to join the said blocks, one or more of the said connection elements (2, 20) forming an anchor wedge and each one providing an anchor point for the said structure, each anchor point also including a rope fixed to the rod of the connection element (2, 20) forming the anchor wedge, the said floating structure being characterised in that the anchor points are located below and inside the said structure, in that the rope is fixed to the rod of the connection element (2, 20) forming the anchor wedge in such a way that it stretches below the floating structure from the lower end of the rod and in that the rod of the connection element (2, 20) forming an anchor wedge includes a bore receiving the rope fixed at one of its ends to the said rod by a detent.
Anchor bar with a base body, wherein the base body has a longitudinal groove extending in the direction of a longitudinal central axis of the anchor bar, wherein the base body has on the side opposite the longitudinal groove a bar back, to which at least one anchor is secured, and wherein the base body has at least one end face, which extends transversely to the longitudinal central axis and to which an end plate is fixed, wherein the end plate projects beyond the bar back towards the side of the base body which is remote from the longitudinal groove, and wherein the end plate supports an anchoring element which extends from the end plate to that side of the end plate on which the base body is located, characterised in that the end plate is fixed flush to the end face and does not project into the base body.
A coolant delivery assembly configured for use with a gear cutter tool (108, 208, 308, 408) that cuts gear teeth into a workpiece to form a gear, the coolant deliver assembly comprising: a retaining cooling nut that can retain the gear cutter tool relative to a tool holder, wherein the retaining cooling nut is configured to receive coolant and deliver the coolant through the plurality of coolant flow passages and direct the coolant toward the gear cutter tool; a tool holder that can support the gear cutter tool; and a coupling member that couples the retaining cooling nut to the tool holder; characterized in that the retaining cooling nut has a nut body that defines a plurality of coolant flow passages therein, wherein the nut body further comprises an engaging end that is configured to engage the gear cutter tool and an opposite end, wherein the plurality of coolant flow passages each define a linear portion and an arcuate portion, wherein the linear portions communicate coolant from the engaging end toward the opposite end. a retaining cooling nut that can retain the gear cutter tool relative to a tool holder, wherein the retaining cooling nut is configured to receive coolant and deliver the coolant through the plurality of coolant flow passages and direct the coolant toward the gear cutter tool; a tool holder that can support the gear cutter tool; and a coupling member that couples the retaining cooling nut to the tool holder; characterized in that the retaining cooling nut has a nut body that defines a plurality of coolant flow passages therein, wherein the nut body further comprises an engaging end that is configured to engage the gear cutter tool and an opposite end, wherein the plurality of coolant flow passages each define a linear portion and an arcuate portion, wherein the linear portions communicate coolant from the engaging end toward the opposite end.
A control system for a calorimeter comprising a sample sensor (326, 630) and a reference sensor (316, 640), the control system comprising: a first controller (311, 610) configured to receive a temperature signal from only the reference sensor and to generate a first control signal, based on the received temperature signal, to provide power to the sample sensor and to the reference sensor; and a second controller (321, 620) configured to receive temperature signals from both the sample sensor and the reference sensor and to generate a second control signal to provide differential power to only the sample sensor; a storage medium configured with a temperature program with a selected heating or cooling rate of at least 10 Kelvin/second, wherein at least one of the first and second controllers is a proportional controller configured to detect temperature changes at a heating rate of 10 Kelvin/second or more. a first controller (311, 610) configured to receive a temperature signal from only the reference sensor and to generate a first control signal, based on the received temperature signal, to provide power to the sample sensor and to the reference sensor; and a second controller (321, 620) configured to receive temperature signals from both the sample sensor and the reference sensor and to generate a second control signal to provide differential power to only the sample sensor; a storage medium configured with a temperature program with a selected heating or cooling rate of at least 10 Kelvin/second, wherein at least one of the first and second controllers is a proportional controller configured to detect temperature changes at a heating rate of 10 Kelvin/second or more.
System comprising: - a lock provided with near field communication NFC transmission/reception electronic circuits and electrical circuits for controlling mechanical locking/unlocking members, and a target zone for the NFC communication and - a mobile telephone provided with circuits enabling it to operate in NFC mode, the system being characterized in that it comprises means for transmitting energy to the lock by remote power feed from the telephone, so as to charge a buffer capacitor to then temporarily power the electronic and electrical circuits of the lock for the time it takes the latter to interrogate the NFC circuits of the telephone in order to check the accreditation of the carrier of the telephone and control the opening of a door and comprising means for switching from a first configuration, in which the lock is in so-called "reader mode" and the telephone is in so-called "card emulation mode", to a second configuration, in which the telephone is switched to "reader mode" so as to transmit energy to the lock by remote power feed to charge said buffer capacitor. - a lock provided with near field communication NFC transmission/reception electronic circuits and electrical circuits for controlling mechanical locking/unlocking members, and a target zone for the NFC communication and - a mobile telephone provided with circuits enabling it to operate in NFC mode,
A method comprising: providing a substrate in rolled form, the substrate comprising a first edge face, and a second edge face opposite said first edge face, wherein the substrate comprises a first major surface and a second major surface opposite said first major surface, the first and second major surfaces extending between the first edge face and the second edge face, further wherein a first liner is positioned adjacent to and adhering tightly to the first major surface and a second liner is positioned adjacent to and adhering tightly to the second major surface, the method consisting of: applying a coating to one edge face or both edge faces of the substrate while in rolled form without applying the coating to either the first or second major surfaces (25a and 25b), wherein applying the coating is carried out using atomic layer deposition, molecular layer deposition, or a combination thereof. providing a substrate in rolled form, the substrate comprising a first edge face, and a second edge face opposite said first edge face, wherein the substrate comprises a first major surface and a second major surface opposite said first major surface, the first and second major surfaces extending between the first edge face and the second edge face, further wherein a first liner is positioned adjacent to and adhering tightly to the first major surface and a second liner is positioned adjacent to and adhering tightly to the second major surface, the method consisting of: applying a coating to one edge face or both edge faces of the substrate while in rolled form without applying the coating to either the first or second major surfaces (25a and 25b), wherein applying the coating is carried out using atomic layer deposition, molecular layer deposition, or a combination thereof. applying a coating to one edge face or both edge faces of the substrate while in rolled form without applying the coating to either the first or second major surfaces (25a and 25b), wherein applying the coating is carried out using atomic layer deposition, molecular layer deposition, or a combination thereof.