mhurhangee/ep-ind-claims huggingface dataset:
A polymer spray deposition system, comprising: a spray generator that receives a fluid from a fluid source and generates a plurality of fluid droplets by stretching the fluid between two diverging surfaces into a fluid filament until the fluid filament breaks into the plurality of droplets that form a spray; a harvesting element that receives the spray from the spray generator and entrains the spray in a carrier gas flow; a multi-nozzle array that receives the carrier gas flow and directs the carrier gas flow toward a target surface; and an object production stage that controls the multi-nozzle array to repeatedly apply the carrier gas flow to the target surface to form a three-dimensional object on the target surface. a spray generator that receives a fluid from a fluid source and generates a plurality of fluid droplets by stretching the fluid between two diverging surfaces into a fluid filament until the fluid filament breaks into the plurality of droplets that form a spray; a harvesting element that receives the spray from the spray generator and entrains the spray in a carrier gas flow; a multi-nozzle array that receives the carrier gas flow and directs the carrier gas flow toward a target surface; and an object production stage that controls the multi-nozzle array to repeatedly apply the carrier gas flow to the target surface to form a three-dimensional object on the target surface.
A food preparation apparatus comprising: a rotatable implement configured to process a food item introduced into the food preparation apparatus to produce solid food particles and juice; a drum rotatably mounted on the food preparation apparatus, wherein the drum comprises a radially outer drum wall extending in a circumferential plane and enclosing an interior space of the food preparation apparatus for containing the food item during processing, wherein the food preparation apparatus is configured to rotate the drum about an axis of rotation (X 1) such that the solid food particles and juice are urged radially outwards by virtue of the rotation of the drum; and a filter element which is rotatable with the drum, the filter element comprising a perforated wall, wherein the perforated wall at least partially defines a juice channel for juice to pass out of the drum, the perforated wall being configured to permit the juice from the food item to pass through the perforated wall and restrict the solid food particles from passing through the perforated wall, characterized in that the perforated wall is displaced from the circumferential plane and extends in a direction having components in a radial direction of the drum, such that juice and solid food particles pass through the perforated wall in a direction with a component in a circumferential direction of the drum. a rotatable implement configured to process a food item introduced into the food preparation apparatus to produce solid food particles and juice; a drum rotatably mounted on the food preparation apparatus, wherein the drum comprises a radially outer drum wall extending in a circumferential plane and enclosing an interior space of the food preparation apparatus for containing the food item during processing, wherein the food preparation apparatus is configured to rotate the drum about an axis of rotation (X 1) such that the solid food particles and juice are urged radially outwards by virtue of the rotation of the drum; and a filter element which is rotatable with the drum, the filter element comprising a perforated wall, wherein the perforated wall at least partially defines a juice channel for juice to pass out of the drum, the perforated wall being configured to permit the juice from the food item to pass through the perforated wall and restrict the solid food particles from passing through the perforated wall, characterized in that the perforated wall is displaced from the circumferential plane and extends in a direction having components in a radial direction of the drum, such that juice and solid food particles pass through the perforated wall in a direction with a component in a circumferential direction of the drum.
A method for interacting with an electronic device (200; 300) having a control surface including a plurality of capacitive electrodes and at least one neutral surface (206-212; 302-308) separate from the control surface and free of capacitive electrodes, the method comprising: - receiving measurement signals from the capacitive electrodes; - based on the received measurement signals, utilizing an edge effect of at least one of the plurality of capacitive electrodes of the control surface, said electrode proximate to the neutral surface, to detect at least one object in contact with, or at a distance from, the at least one neutral surface of the electronic device; and - based on the detected at least one object, triggering at least one function in the electronic device. - receiving measurement signals from the capacitive electrodes; - based on the received measurement signals, utilizing an edge effect of at least one of the plurality of capacitive electrodes of the control surface, said electrode proximate to the neutral surface, to detect at least one object in contact with, or at a distance from, the at least one neutral surface of the electronic device; and - based on the detected at least one object, triggering at least one function in the electronic device.
A semi-automatic pistol comprising a frame wherein there is arranged a barrel the firing chamber of which is associated with a receiving cavity for receiving a cartridge, said receiving cavity being provided with a downwards opening to communicate with a magazine, and with a side ejection port associated with a mechanism for extracting and ejecting the case (7") after shooting, the pistol further comprising a firing mechanism comprising a striker rockingly mounted in the rear portion of the pistol and suitable to initiate firing a cartridge inside the firing chamber, and a trigger integral with an actuating arm which acts on means for arming and retaining the striker in the armed position, wherein the barrel is mounted in an axially slidable manner between a forward position to which it is driven by the friction of the bullet when firing a cartridge, and a recoiled position to which it is pushed by a recoil spring until reloading a new cartridge, said means for arming and retaining the striker comprising a link which at its back end is connected to the striker by means of an articulation, characterized in that the link is operated by means of a lever pivotably mounted inside the frame, said lever having a top end operated by the barrel during the movement of said barrel to its forward position in order to pivot said lever, and a bottom end forming a cam (40") that acts on said link during the pivoting of said lever, pushing it back so as to rearm the striker.
Fuel pump for conveying fuel, which has at least one conveying unit and is in contact with at least one cam mechanism, wherein the at least one conveying unit has a piston, a conveying spring, an inner sleeve, an outer sleeve and a locking bolt which are arranged in a cylinder, wherein the inner sleeve is connected to the piston, wherein the outer sleeve is in contact with the conveying spring and a roller of the at least one cam mechanism, and wherein the inner sleeve and the outer sleeve are connected to one another detachably by the locking bolt, wherein a wall of the outer sleeve has a hole in which one end of the locking bolt is arranged, characterised in that by means of the at least one conveying unit fuel is only conveyed when the inner sleeve and the outer sleeve are connected to one another by the locking bolt, wherein the conveying of fuel is interrupted by the at least one conveying unit, when the inner sleeve and the outer sleeve are detached from one another.
A composition comprising lidocaine and ethyl paraaminobenzoate in a mass ratio of 6:94 to 18:82, for use as a surface anesthetic agent for the buccal mucosal membrane.
A structure comprising a substrate and a patterned inorganic material on a surface of the substrate, wherein the patterned inorganic material has edges with an average line-width roughness from 1.2 nm to 2.0 nm at a pitch of no more than about 60 nm, obtainable by a method comprising forming a layer of radiation patternable coating material comprising a solvent, metal suboxide cations, ligands comprising a peroxide group and inorganic polyatomic anions to form a coated substrate; heating the coated substrate to remove at least a portion of the solvent; irradiating the coated substrate with a pattern of radiation to condense the coating at the irradiated regions, wherein the pattern of radiation comprises extreme ultraviolet light at a dose of no more than about 100 mJ/cm 2; heating the coated substrate after irradiation to a temperature of at least about 45 °C prior to contacting the coating with a developer to form a pattern; and performing further material deposition and/or patterning; wherein the layer of coating material may or may not ultimately be removed, wherein, a) if the layer is not removed, the patterned coating material is incorporated into the structure b) if the layer is removed, it functions as a resist and the coating material is used to pattern a subsequently deposited material prior to the removal of the resist/coating material. forming a layer of radiation patternable coating material comprising a solvent, metal suboxide cations, ligands comprising a peroxide group and inorganic polyatomic anions to form a coated substrate; heating the coated substrate to remove at least a portion of the solvent; irradiating the coated substrate with a pattern of radiation to condense the coating at the irradiated regions, wherein the pattern of radiation comprises extreme ultraviolet light at a dose of no more than about 100 mJ/cm 2; heating the coated substrate after irradiation to a temperature of at least about 45 °C prior to contacting the coating with a developer to form a pattern; and performing further material deposition and/or patterning; a) if the layer is not removed, the patterned coating material is incorporated into the structure b) if the layer is removed, it functions as a resist and the coating material is used to pattern a subsequently deposited material prior to the removal of the resist/coating material.
Automatic glass-breaking device formed by a body comprising a needle activated by a pyrotechnic charge and a base plate having an outer surface coated with a means for adhering to a pane of glass, said base plate being extended to the opposite surface by a cylindrical frame defining a tubular cavity inside which is inserted the tubular end of a pyrotechnic component, the triggering of which is performed by an electrical initiator, said pyrotechnic component comprising a pyrotechnic charge in its rear portion and said needle in its front portion, said device consisting of a trigger button integrated into said device and a means of wired or wireless connection with a remote activation means - said body including an electronic module comprising a self-contained power source associated with a contact switch activatable from the outer surface of the body, for delivering an electrical pulse to the electrical initiator - characterized in that said electronic module is controlled by an electrical signal from a vehicle control controlling the deactivation of the trigger button in the presence of said electrical signal, the absence of an electrical signal enabling the triggering of the electrical initiator via a signal produced by action on said trigger button. - said body including an electronic module comprising a self-contained power source associated with a contact switch activatable from the outer surface of the body, for delivering an electrical pulse to the electrical initiator - characterized in that said electronic module is controlled by an electrical signal from a vehicle control controlling the deactivation of the trigger button in the presence of said electrical signal, the absence of an electrical signal enabling the triggering of the electrical initiator via a signal produced by action on said trigger button.
A method of forming an implant having a porous region replicated from scanned bone, the method comprising the steps of:: imaging bone with a high resolution digital scanner to generate a three-dimensional design model of the bone; removing a three-dimensional section from the design model; fabricating a porous region on a digital representation of the implant by replacing a solid portion of the digital implant with the section removed from the design model; and using an additive manufacturing technique to create a physical implant including the fabricated porous region. imaging bone with a high resolution digital scanner to generate a three-dimensional design model of the bone; removing a three-dimensional section from the design model; fabricating a porous region on a digital representation of the implant by replacing a solid portion of the digital implant with the section removed from the design model; and using an additive manufacturing technique to create a physical implant including the fabricated porous region.
A closure device, particularly for items of clothing for motorcycling, comprising a first closure element, which is associated with a first flap to be joined, a second closure element, which is associated with a second flap to be joined and can be coupled detachably to said first closure element, means for varying the position of said second closure element with respect to the border of said second flap to be joined which is directed toward said first flap to be joined, for adjusting the fastening between said first flap to be joined and said second flap to be joined, wherein said means for varying the position of said second closure element comprise a slider, which supports said second closure element and can be moved along a longitudinal adjustment guide which is connected to said second flap to be joined, means being provided for the detachable locking of said slider in any position along said longitudinal adjustment guide, characterized in that said longitudinal adjustment guide comprises a strip of hook-and-loop tape, which is fixed to said second flap to be joined, said slider comprising a base which can be fastened to said strip of hook-and-loop tape.
Compound 1 which is (1S,2S,3S,5R)-3-((6-(difluoromethyl)-5-fluoro-1,2,3,4-tetrahydroisoquinolin-8-yl)oxy)-5-(4-methyl-7H-pyrrolo[2,3-d]pyrimidin-7-yl)cyclopentane-1,2-diol having the structure: or a pharmaceutically acceptable salt thereof, for use in treating abnormal cell growth in a subject no more than once per day.
An implantable electrode arrangement for a cochlear implant system, the arrangement comprising: an electrode array with an outer surface having a plurality of electrode contacts configured for applying cochlear stimulation signals to target neural tissue within an implanted patient cochlea; an electrode lead configured for delivering the cochlear stimulation signals from an implanted signal processor to the electrode array; an electrode transition section comprising a distal end portion of the electrode lead connected to a basal end portion of the electrode array; and an electrode storage device configured to contain the electrode transition section and configured to be secured at an electrode opening in an outer surface of the patient cochlea; wherein the electrode arrangement is configured for a portion of the electrode array to be surgically implanted through the electrode opening into the patient cochlea so that the electrode transition section remains within the electrode storage device secured outside the patient cochlea; and wherein the electrode storage device is configured to be postoperatively controllable, when the electrode arrangement and the cochlear implant system are completely implanted, to further insert an additional section of the electrode array from the electrode storage device into the patient cochlea and thereby implant a greater portion of the electrode array more deeply into the patient cochlea. an electrode array with an outer surface having a plurality of electrode contacts configured for applying cochlear stimulation signals to target neural tissue within an implanted patient cochlea; an electrode lead configured for delivering the cochlear stimulation signals from an implanted signal processor to the electrode array; an electrode transition section comprising a distal end portion of the electrode lead connected to a basal end portion of the electrode array; and an electrode storage device configured to contain the electrode transition section and configured to be secured at an electrode opening in an outer surface of the patient cochlea; wherein the electrode arrangement is configured for a portion of the electrode array to be surgically implanted through the electrode opening into the patient cochlea so that the electrode transition section remains within the electrode storage device secured outside the patient cochlea; and wherein the electrode storage device is configured to be postoperatively controllable, when the electrode arrangement and the cochlear implant system are completely implanted, to further insert an additional section of the electrode array from the electrode storage device into the patient cochlea and thereby implant a greater portion of the electrode array more deeply into the patient cochlea.
A semiconductor device comprising: a drain; a channel that surrounds the drain and has an active channel region that has an active channel region length, and an inactive channel region that has an inactive channel region length; a gate situated over the active channel region; and a source that surrounds the channel; characterised in that said inactive channel region length is less than said active channel region length. a drain; a channel that surrounds the drain and has an active channel region that has an active channel region length, and an inactive channel region that has an inactive channel region length; a gate situated over the active channel region; and a source that surrounds the channel;
Grinder for a spice mill, having a stator, wherein the stator can be connected to a container and the position of the stator in the connected state is substantially defined in the direction of a longitudinal axis of the grinder relative to the container, and having an actuating unit which comprises a rotor, wherein the rotor is arranged, at least in portions, within the stator and is rotatably mounted relative to the stator, wherein the rotor is connected to an actuating element for conjoint rotation, wherein the actuating element is connected to an adjusting element in a rotatable manner and so as to be secured in the direction of the longitudinal axis, characterised in that the adjusting element comprises a thread, with which it can be connected to the container, and the container comprises a mating thread for the thread of the adjusting element, such that the position of the rotor in the direction of the longitudinal axis can be adjusted by means of a rotation of the adjusting element relative to the container. having a stator, wherein the stator can be connected to a container and the position of the stator in the connected state is substantially defined in the direction of a longitudinal axis of the grinder relative to the container, and having an actuating unit which comprises a rotor, wherein the rotor is arranged, at least in portions, within the stator and is rotatably mounted relative to the stator, wherein the rotor is connected to an actuating element for conjoint rotation, wherein the actuating element is connected to an adjusting element in a rotatable manner and so as to be secured in the direction of the longitudinal axis, characterised in that the adjusting element comprises a thread, with which it can be connected to the container, and the container comprises a mating thread for the thread of the adjusting element, such that the position of the rotor in the direction of the longitudinal axis can be adjusted by means of a rotation of the adjusting element relative to the container.
A composite substrate, comprising: a first silicon carbide layer, wherein a material of the first silicon carbide layer comprises monocrystalline silicon carbide; and a second silicon carbide layer, bonded to the first silicon carbide layer, wherein defect density of at least a part of the second silicon carbide layer is greater than defect density of the first silicon carbide layer, characterized in that the composite substrate further comprises a transition layer, the transition layer is located between the first silicon carbide layer and the second silicon carbide layer, and the first silicon carbide layer and the second silicon carbide layer are bonded by using the transition layer; wherein a second bonding layer is formed by bonding the first silicon carbide layer to the transition layer, and a third bonding layer is formed by bonding the second silicon carbide layer to the transition layer; and a sum of thicknesses of the transition layer, the second bonding layer, and the third bonding layer is less than or equal to 100 nm. a first silicon carbide layer, wherein a material of the first silicon carbide layer comprises monocrystalline silicon carbide; and a second silicon carbide layer, bonded to the first silicon carbide layer, wherein defect density of at least a part of the second silicon carbide layer is greater than defect density of the first silicon carbide layer, characterized in that the composite substrate further comprises a transition layer, the transition layer is located between the first silicon carbide layer and the second silicon carbide layer, and the first silicon carbide layer and the second silicon carbide layer are bonded by using the transition layer; wherein a second bonding layer is formed by bonding the first silicon carbide layer to the transition layer, and a third bonding layer is formed by bonding the second silicon carbide layer to the transition layer; and
A turbine engine system, comprising: a turbine engine heat source including a first passage; a heat exchanger including a second passage and a third passage; a cooling medium inlet; and a cooling medium outlet; wherein the first and the second passages (14, 30) are configured in a closed loop circuit, and the third passage is configured between the cooling medium inlet and the cooling medium outlet in an open loop circuit; characterised in that: the system further comprises a second heat exchanger that includes a fourth passage; and the first passage is fluidly coupled between an outlet of the second passage and an inlet of the fourth passage, and the heat source includes a fifth passage that is fluidly coupled between an outlet of the fourth passage and an inlet of the second passage. a turbine engine heat source including a first passage; a heat exchanger including a second passage and a third passage; a cooling medium inlet; and a cooling medium outlet; wherein the first and the second passages (14, 30) are configured in a closed loop circuit, and the third passage is configured between the cooling medium inlet and the cooling medium outlet in an open loop circuit; characterised in that: the system further comprises a second heat exchanger that includes a fourth passage; and the first passage is fluidly coupled between an outlet of the second passage and an inlet of the fourth passage, and the heat source includes a fifth passage that is fluidly coupled between an outlet of the fourth passage and an inlet of the second passage. the system further comprises a second heat exchanger that includes a fourth passage; and the first passage is fluidly coupled between an outlet of the second passage and an inlet of the fourth passage, and the heat source includes a fifth passage that is fluidly coupled between an outlet of the fourth passage and an inlet of the second passage.