mhurhangee/ep-ind-claims huggingface dataset:
A rotary motor for compressible media, containing at least one impellor and at least one stator mounted between two mutually coupled and concurrently mounted bearing plates, adjusted for a mounting of double sided led out driving shaft of the impellor on which is mounted a rotary piston mounted in a chamber of the stator equipped with sealing lids, wherein the rotary piston with an elliptical crosscut is mounted into symmetrically shaped triangular chamber equipped with rounded peaks, when each of them is equipped with at least one port for an entry and an exit of the compressible media, in a way that lengthwise axe (o p) of the rotary piston which is identical to the driving shaft axis is due to reach of simultaneous circular movement of the stator in contra direction to the rotary piston rotating namely at parallel advance of all points of the stator along the circle with eccentricity radius (e) and is moved with regard to lengthwise axe (o s) of the chamber of the stator of the value of an eccentricity (e), whereas to one of the bearing plates is on the driving shaft mounted central cog wheel on whose perimeter are evenly mounted three satellite cog wheels, which are firmly mounted on pegs pivoted in the bearing plate and coupled with the stator by the help of the drive pins fixed in the stator with eccentricity (e) regarding to the pegs axes.
A camera module comprising: a housing for housing components of the camera module, the housing having a top side which defines an opening; a lens barrel housed by the housing and having one or more lens elements (412a, 412b, 412c, 412d); an image sensor for receiving light which passes through the lens elements (412a, 412b, 412c, 412d) of the lens barrel, the image sensor being configured to produce an electronic signal based on the received light; an actuator housed by the housing and engaging the lens barrel, the actuator being configured to move the lens barrel relative to the image sensor to a first position in which at least a portion of the lens barrel extends through the opening, wherein the first position is a first extreme position provided by the actuator in which the lens barrel is in its furthest position from the image sensor, and wherein the actuator is further configured to move the lens barrel to a second extreme position, and wherein at least a portion of the lens barrel extends through the opening when the lens barrel is in the second extreme position, wherein, when the lens barrel is in the second extreme position, the lens barrel is nearer the image sensor than when the lens barrel is in the first extreme position; and a seal between the portion of the top side which defines the opening and the lens barrel. a housing for housing components of the camera module, the housing having a top side which defines an opening; a lens barrel housed by the housing and having one or more lens elements (412a, 412b, 412c, 412d); an image sensor for receiving light which passes through the lens elements (412a, 412b, 412c, 412d) of the lens barrel, the image sensor being configured to produce an electronic signal based on the received light; an actuator housed by the housing and engaging the lens barrel, the actuator being configured to move the lens barrel relative to the image sensor to a first position in which at least a portion of the lens barrel extends through the opening, wherein the first position is a first extreme position provided by the actuator in which the lens barrel is in its furthest position from the image sensor, and wherein the actuator is further configured to move the lens barrel to a second extreme position, and wherein at least a portion of the lens barrel extends through the opening when the lens barrel is in the second extreme position, wherein, when the lens barrel is in the second extreme position, the lens barrel is nearer the image sensor than when the lens barrel is in the first extreme position; and a seal between the portion of the top side which defines the opening and the lens barrel.
Contact system for a surface-mounted or flush-mounted switch which is integrated in a switch insert of an electrical installation device and can be used in the interior or exterior region of a building, the contact rocker of which contact system is equipped with a contact piece at at least one of its free ends, - wherein the contact piece exerts a contact force on at least one contact piece of a fixed contact when the contact rocker is operated, as a result of which the contact piece, in its end position, makes contact with the fixed contact, characterized in that - a contact point, which is applied on the contact piece and/or the fixed contact, is formed from a hybrid material, the base material (41, 61) of the said hybrid material being composed of a non-precious, weldable material and the contact material (42, 62) which is applied on the said base material consisting of a material with high conductivity properties, and the base material (41, 61) on the contact piece and/or the fixed contact is flattened or bevelled in a wedge-shaped manner. - wherein the contact piece exerts a contact force on at least one contact piece of a fixed contact when the contact rocker is operated, as a result of which the contact piece, in its end position, makes contact with the fixed contact, characterized in that - a contact point, which is applied on the contact piece and/or the fixed contact, is formed from a hybrid material, the base material (41, 61) of the said hybrid material being composed of a non-precious, weldable material and the contact material (42, 62) which is applied on the said base material consisting of a material with high conductivity properties, and the base material (41, 61) on the contact piece and/or the fixed contact is flattened or bevelled in a wedge-shaped manner.
Micropile or tie for connecting a structure to a soil, the micropile or tie comprising: - at least one linear metallic element, - at least one external corrosion-protective duct, inside which is positioned the linear metallic element, said external duct being filled with a hardening material, - a head element connected to an upper end of the linear metallic element, wherein the head element is surrounded by a cover (27, 28; 31, 32, 33) for protection against corrosion, charaterized in that the cover (27, 28; 31, 32, 33) is sealed directly to the external duct, in that the head element is threadly connected to the upper end of the linear metallic element, in that the cover (27, 28; 31, 32, 33) is filled with a hardening material, and in that the head element further includes at least one supporting plate, located inside the cover (27, 28; 31, 32, 33) which is filled with the hardening material, to ensure the load transfer between the linear metallic element, the hardening material and the structure. - at least one linear metallic element, - at least one external corrosion-protective duct, inside which is positioned the linear metallic element, said external duct being filled with a hardening material, - a head element connected to an upper end of the linear metallic element,
Method for producing a metal-ceramic substrate, in which at least one ceramic layer and at least one metal layer are arranged on top of one another along a stacking direction and the at least one metal layer is structured to form conductor paths or connection points for electrical components, comprising - providing the at least one ceramic layer; - forming an interface metallization on the at least one ceramic layer, wherein the interface metallization comprises an active metal layer and a wetting metal layer, and - bonding the at least one metal layer to the interface metallization, in particular by means of a direct metal bonding method, such as a DCB or DAB method, or an active soldering process, in order to form the metal-ceramic substrate, wherein the active metal layer and/or the wetting metal layer is subjected to an energy input in order to form the interface metallization characterized in that light or inductive heating is used as the energy input. - providing the at least one ceramic layer; - forming an interface metallization on the at least one ceramic layer, wherein the interface metallization comprises an active metal layer and a wetting metal layer, and - bonding the at least one metal layer to the interface metallization, in particular by means of a direct metal bonding method, such as a DCB or DAB method, or an active soldering process, in order to form the metal-ceramic substrate,
An IC tag label (10, 204) comprising: an IC chip; a communication antenna element having a first end and a second end, the first end being electrically connected to the IC chip, the communication antenna element including a planar coil extending on a first surface; and a bridge wiring including a wiring element which is located in an opposed region on a second surface which is opposed to the first surface, the bridge wiring electrically connecting the second end to the IC chip, wherein the communication antenna element has an air core section which includes a center of the planar coil, and characterized in that the communication antenna element has a shape suitable for positioning on a bottle mouth, and A) the wiring element is a single wire including a plurality of bent sections (141c1) and having a folded line shape which traverses the air core section a plurality of times in plan view perpendicular to the first surface, or B) the wiring element is a single wire having a spiral shape overlapped with the air core section in plan view perpendicular to the first surface. an IC chip; a communication antenna element having a first end and a second end, the first end being electrically connected to the IC chip, the communication antenna element including a planar coil extending on a first surface; and a bridge wiring including a wiring element which is located in an opposed region on a second surface which is opposed to the first surface, the bridge wiring electrically connecting the second end to the IC chip, wherein the communication antenna element has an air core section which includes a center of the planar coil, and characterized in that the communication antenna element has a shape suitable for positioning on a bottle mouth, and A) the wiring element is a single wire including a plurality of bent sections (141c1) and having a folded line shape which traverses the air core section a plurality of times in plan view perpendicular to the first surface, or B) the wiring element is a single wire having a spiral shape overlapped with the air core section in plan view perpendicular to the first surface. A) the wiring element is a single wire including a plurality of bent sections (141c1) and having a folded line shape which traverses the air core section a plurality of times in plan view perpendicular to the first surface, or B) the wiring element is a single wire having a spiral shape overlapped with the air core section in plan view perpendicular to the first surface.
An electric aircraft propulsion assembly for an electric vertical takeoff and landing, eVTOL, aircraft, the assembly comprising: an electric storage unit; a first electric motor connected to power a first propulsor; a first converter configured as a DC:AC converter having input connections connectable to the electric storage unit and output connections connected to the first electric motor, the first converter configured to convert a DC supply across the input connections to an AC supply across the output connections; a second electric motor connected to power a second propulsor; a second converter connected between the first converter input connections and the second electric motor; and a controller connected to control operation of the first and second converters, wherein the controller is configured to operate in a first mode in which the first and second converters (307, 308) are operated as DC:AC converters to drive the first and second electric motors (303, 304) and a second mode in which the first converter is operated to drive the first electric motor to power the first propulsor and the second converter is operated to drive the second electric motor to provide a braking torque on the second propulsor. an electric storage unit; a first electric motor connected to power a first propulsor; a first converter configured as a DC:AC converter having input connections connectable to the electric storage unit and output connections connected to the first electric motor, the first converter configured to convert a DC supply across the input connections to an AC supply across the output connections; a second electric motor connected to power a second propulsor; a second converter connected between the first converter input connections and the second electric motor; and a controller connected to control operation of the first and second converters, wherein the controller is configured to operate in a first mode in which the first and second converters (307, 308) are operated as DC:AC converters to drive the first and second electric motors (303, 304) and a second mode in which the first converter is operated to drive the first electric motor to power the first propulsor and the second converter is operated to drive the second electric motor to provide a braking torque on the second propulsor.
Device for machining a workpiece of which at least a portion or portions are preferably of wood, engineered wood, plastics materials or the like, having: a first milling tool for machining the contour of an edging fixed to the workpiece, and having a second milling tool for machining the contour of an edging fixed to the workpiece, which second milling tool is adjustable, relative to the first milling tool, between a rest position in which the first milling tool can be brought into engagement with a workpiece and a machining position in which the second milling tool can be brought into engagement with a workpiece, characterised in that the device also has a third milling tool for machining flush a narrow side of an edging fixed to the workpiece, the three milling tools (9; 10; 14) being arranged coaxially to one another and all being drivable in unison by means of an arrangement, the basic diameters of the first and second milling tools being less than the basic diameter of the third milling tool. a first milling tool for machining the contour of an edging fixed to the workpiece, and having a second milling tool for machining the contour of an edging fixed to the workpiece, which second milling tool is adjustable, relative to the first milling tool, between a rest position in which the first milling tool can be brought into engagement with a workpiece and a machining position in which the second milling tool can be brought into engagement with a workpiece, characterised in that the device also has a third milling tool for machining flush a narrow side of an edging fixed to the workpiece, the three milling tools (9; 10; 14) being arranged coaxially to one another and all being drivable in unison by means of an arrangement, the basic diameters of the first and second milling tools being less than the basic diameter of the third milling tool.
Electrical connection system comprising an electrical connector, a flexible sheet and an attachment system, wherein the electrical connector comprises a metallic shield having a rear portion with a polygonal cross-section, wherein the flexible sheet has a flexible electrically conductive front section which surrounds the rear portion of the metallic shield, wherein the attachment system surrounds the front section of the flexible sheet, and is characterized by having rigid arms (16a, 16b) interconnected to correspond to the polygonal cross-section, and by having adjustment mechanisms (25, 26) adapted to guide adjacent rigid arms relative to one another along a radial degree of freedom.
A power coupling device configured to transfer power between a stator and a rotor, the power coupling device comprising: a support structure defining at least two or more openings; a core element comprising a ferrite material, the core element configured to be received within the at least two or more openings of the support structure, the core element defining a core channel; an inductive element configured to be received within the core channel; and an attachment structure removably attached to the support structure, the attachment structure configured to attach the core element to the support structure, the core element disposed between the support structure and the attachment structure; and the inductive element is facing a first side of the core element, the attachment structure is facing a second side opposite of the first side of the core element. a support structure defining at least two or more openings; a core element comprising a ferrite material, the core element configured to be received within the at least two or more openings of the support structure, the core element defining a core channel; an inductive element configured to be received within the core channel; and an attachment structure removably attached to the support structure, the attachment structure configured to attach the core element to the support structure, the core element disposed between the support structure and the attachment structure; and the inductive element is facing a first side of the core element, the attachment structure is facing a second side opposite of the first side of the core element.
A continuous glucose sensor system comprising: an implantable electrode configured to measure a glucose concentration in a host, the electrode comprising an exposed electroactive surface; a membrane disposed over the electrode, wherein the membrane comprises a resistance domain configured to control a flux of oxygen and glucose to the electrode and an enzyme domain distally situated from the electroactive surface and comprising an enzyme configured to catalyze a reaction of glucose and oxygen, and wherein the resistance domain is disposed more distal from the electroactive surface than the enzyme domain; and a sensor electronics unit operably connected to the electrode and configured to measure a signal produced by the electrode, characterized in that the resistance domain is adapted to supply the enzyme domain with oxygen in non-rate-limiting excess such that the sensor electronics unit is configured to thereby measure the signal with substantial linearity at glucose concentrations of up to 400 mg/dL at an oxygen concentration of 0.3 mg/L. an implantable electrode configured to measure a glucose concentration in a host, the electrode comprising an exposed electroactive surface; a membrane disposed over the electrode, wherein the membrane comprises a resistance domain configured to control a flux of oxygen and glucose to the electrode and an enzyme domain distally situated from the electroactive surface and comprising an enzyme configured to catalyze a reaction of glucose and oxygen, and wherein the resistance domain is disposed more distal from the electroactive surface than the enzyme domain; and a sensor electronics unit operably connected to the electrode and configured to measure a signal produced by the electrode, characterized in that the resistance domain is adapted to supply the enzyme domain with oxygen in non-rate-limiting excess such that the sensor electronics unit is configured to thereby measure the signal with substantial linearity at glucose concentrations of up to 400 mg/dL at an oxygen concentration of 0.3 mg/L.
A gate-all-around semiconductor device comprising a semiconductor substrate comprising a first crystalline semiconductor material; two suspended nanowires (105a, 105b) horizontally adjacent at a distance D being located at least partially above and in between a pair of adjacent STI regions and the two suspended nanowires being held in place by a source region and a drain region at both ends of the two suspended nanowires, the two suspended nanowires comprising a crystalline Group III-V semiconductor material which is different from the first crystalline semiconductor material, wherein a cavity is present between the suspended nanowires, opposite sidewalls of the STI regions and the semiconductor substrate, wherein the suspended nanowires are wrapped by a final gate stack and wherein the top surface and the sidewalls of the STI regions and the exposed surface of the semiconductor substrate inside the cavity are also covered by the final gate stack and wherein distance D is larger than the thickness of the final gate stack and is smaller than the width of the cavity.
Distributor head for a pneumatically operating distribution machine for seed, fertilizer and the like, wherein the distributor head is connected to a storage container and outlets are arranged in circular symmetric distribution on the distributor head, said outlets being adjoined by distributor lines that lead to dispensing devices for the material to be distributed, and shut-off elements that cooperate with the outlets can be arranged in the distributor head in order to shut off one or more of the distributor lines, wherein the shut-off elements are in the form of shut-off wedges with a foot part to be inserted into the particular outlet to be shut off, characterized in that the shut-off elements are configured in an air-permeable manner, and in that the shut-off wedges each have, above the foot part to be inserted into the particular outlet, at least one through-opening that leads out in the region of the lower end of the foot part.
A method comprising: transmitting, by a non-access point, non-AP, multi-link device, MLD, to an access point, AP, MLD, a frame for a traffic identifier, TID, on a first link to which the TID is mapped; receiving, by the non-AP MLD from the AP MLD, a trigger frame on a second link to which the TID is not mapped; and transmitting, by the non-AP MLD to the AP MLD, in response to the trigger frame, a Quality of Service, QoS, null frame comprising the TID on the second link. transmitting, by a non-access point, non-AP, multi-link device, MLD, to an access point, AP, MLD, a frame for a traffic identifier, TID, on a first link to which the TID is mapped; receiving, by the non-AP MLD from the AP MLD, a trigger frame on a second link to which the TID is not mapped; and transmitting, by the non-AP MLD to the AP MLD, in response to the trigger frame, a Quality of Service, QoS, null frame comprising the TID on the second link.
A food processor arrangement comprising a base housing an electrical drive motor and having a bowl-supporting surface presenting a drive outlet driven from the motor; the surface, in use, supporting a lidded bowl having a central axis along which extends a drive shaft conveying the rotational drive from the outlet to a location proximate the underside of the lid of said bowl; the lid of the bowl being apertured to allow insertion therethrough of foodstuffs to be processed in said bowl and said shaft being adapted to support at said location, for rotation by said drive, a cutter disc bearing a cutting blade for impacting said foodstuffs to effect processing thereof; characterised in that said cutter disc comprises first and second linked sections (42, 44) configured to permit relative movement therebetween; said sections being adapted for selective manipulation by a user to adopt either an operational condition, wherein said sections (42, 44) co-operate to form said cutter disc, or a storage condition, wherein at least a major part of one of said sections (42, 44) overlies the other.
Rolled product in the T351 temper, having a thickness between 15 and 50 mm, made of aluminium alloy according to the following composition, by weight%, Cu: 3.85 - 4.15 Mg: 0.95 - 1.25 Mn: 0.45 - 0.57 Zr: 0.09 - 0.16 Ti: 0.005 - 0.1 Fe: < 0.070 Si: < 0.060 where Cu + Mg ≤ 5.15 other elements less than 0.05 each and less than 0.15 in total, remainder aluminium.