mhurhangee/ep-ind-claims huggingface dataset:
A circuit package, comprising a packaging, a circuit device in the packaging, wherein the packaging comprises a first epoxy mold compound with a first coefficient of thermal expansion, CTE, and a second epoxy mold compound with a second CTE higher than the first CTE, the second epoxy mold compound being disposed adjacent to the circuit device, such that the circuit device and the second epoxy mold compound form a composite portion with a CTE that compensates for the thermal expansion of the first epoxy mold compound, wherein the second epoxy mold compound extends in the same plane as the circuit device, and the first epoxy mold compound extends under the second epoxy mold compound and under the circuit device, wherein the circuit device includes fluid channels, and the packaging comprises fluid holes to deliver fluid to the fluid channels of the circuit device that open into the fluid channels. a packaging, a circuit device in the packaging, wherein the packaging comprises a first epoxy mold compound with a first coefficient of thermal expansion, CTE, and a second epoxy mold compound with a second CTE higher than the first CTE, the second epoxy mold compound being disposed adjacent to the circuit device, such that the circuit device and the second epoxy mold compound form a composite portion with a CTE that compensates for the thermal expansion of the first epoxy mold compound, wherein the second epoxy mold compound extends in the same plane as the circuit device, and the first epoxy mold compound extends under the second epoxy mold compound and under the circuit device, wherein the circuit device includes fluid channels, and the packaging comprises fluid holes to deliver fluid to the fluid channels of the circuit device that open into the fluid channels.
A nano-piezoelectric generator comprising: a first electrode and a second electrode; at least one nano-piezoelectric unit (140,240), comprising a nano-structure formed of a semiconductor piezoelectric material, disposed between the first electrode and the second electrode; and an interlayer, formed of an insulating material, disposed between the first electrode and the at least one nano-piezoelectric unit; characterised in that the interlayer comprises an oxide. a first electrode and a second electrode; at least one nano-piezoelectric unit (140,240), comprising a nano-structure formed of a semiconductor piezoelectric material, disposed between the first electrode and the second electrode; and an interlayer, formed of an insulating material, disposed between the first electrode and the at least one nano-piezoelectric unit; characterised in that the interlayer comprises an oxide.
System for assembling a first element and a second element using threaded male and female parts, comprising a pin with male threads; a part intended to be arranged in a hole extending through the second element, the part being provided with a hole with an inner surface extending through the part, the inner surface being provided with female threads; and a plug shaped unit provided with a hole with an inner surface provided with female threads and an outer surface provided with male threads, wherein the first element is provided with an end fixture; that an end of the pin is configured with an end part intended to be fixed in the end fixture of the first element; the plug shaped unit being provided with a hole extending through the entire unit and where the female threads on inner surface of the hole through the plug shaped unit and the male threads on the exterior surface of the adjustable device have different pitch, characterized in that the end fixture in the first element comprises a first sleeve configured to be fixedly mounted in a first element, the first sleeve being provided with a hole with female threads for receipt of the pin with the male threads, the first fixture serving as a locking fixture.
A method for manufacturing a deflection member suitable for the production of fibrous webs, the method comprising the steps of: a. incorporating a monomer; b. incorporating a photoinitiator system; c. incorporating a photoinhibitor; d. incorporating a reinforcing member; e. combining the monomer, photoinitiator system, and photoinhibitor to form a photopolymer resin; f. contacting the reinforcing member with the photopolymer resin; g. exposing the photopolymer resin to a first wavelength; h. exposing the photopolymer resin to a second wavelength; and i. polymerizing the monomer to form a protuberance extending from the reinforcing member. a. incorporating a monomer; b. incorporating a photoinitiator system; c. incorporating a photoinhibitor; d. incorporating a reinforcing member; e. combining the monomer, photoinitiator system, and photoinhibitor to form a photopolymer resin; f. contacting the reinforcing member with the photopolymer resin; g. exposing the photopolymer resin to a first wavelength; h. exposing the photopolymer resin to a second wavelength; and i. polymerizing the monomer to form a protuberance extending from the reinforcing member.
A method for forming a food product into a circular shape, wherein both ends (3A; 3B) of an elongated food product are connected to each other and closed, or into a C-shape, wherein both ends (3A; 3B) of the elongated food product face each other and are open, characterized in that the method comprises: (a) a step of fixing one end of the elongated food product to a rotatable core member (43; 143); (b) a step of pressing the food product toward the core member (43; 143) by moving the core member (43; 143) close to and away from a pressing roller (29; 129) or by moving a pressing roller (29; 129) close to and away from the core member (43; 143), when the food product is formed into a circular shape by being wound around the core member (43; 143) by rotating the core member (43; 143); and (c) a step of separating the formed food product and the core member (43; 143) by releasing the food product from the core member (43; 143), after forming the food product into the required shape by being wound around the core member (43; 143). (a) a step of fixing one end of the elongated food product to a rotatable core member (43; 143); (b) a step of pressing the food product toward the core member (43; 143) by moving the core member (43; 143) close to and away from a pressing roller (29; 129) or by moving a pressing roller (29; 129) close to and away from the core member (43; 143), when the food product is formed into a circular shape by being wound around the core member (43; 143) by rotating the core member (43; 143); and (c) a step of separating the formed food product and the core member (43; 143) by releasing the food product from the core member (43; 143), after forming the food product into the required shape by being wound around the core member (43; 143).
A cleaner comprising: a main body that forms an external shape; a dust container that is separably combined with the main body and stores dust separated from air; a dust container cover that is configured to open and close the dust container; a handle unit that is disposed behind the dust container; and an operating member that is configured to provide operation force to the dust container cover by moving in a first direction and to release a holding mechanism (1030, 179) for preventing separation of the dust container from the main body by moving in a second direction opposite to the first direction, characterized in that the dust container is separated from the main body when the operating member is operated in the second direction. a main body that forms an external shape; a dust container that is separably combined with the main body and stores dust separated from air; a dust container cover that is configured to open and close the dust container; a handle unit that is disposed behind the dust container; and an operating member that is configured to provide operation force to the dust container cover by moving in a first direction and to release a holding mechanism (1030, 179) for preventing separation of the dust container from the main body by moving in a second direction opposite to the first direction,
An apparatus for deterring birds from a fixed structure, comprising: - a frame fixedly disposed on a structure; - a laser light generator connected with the frame, including a laser light source for generating a laser light beam (4, 12, 25, 34); - a supply circuit for supplying the laser light source; - driving means (6,7) connected with the laser light generator, for having at least a part of the laser light generator move; and - a control element for controlling the laser light source and the drivable part of the laser light generator, wherein the driving means (6,7) are arranged for causing a movement to be executed of at least a drivable part of the laser light generator, wherein the laser beam is caused to move by the control element with such a high frequency that the moving laser beam (12, 25, 34) is perceived as a surface that keeps the birds away from the fixed structure. - a frame fixedly disposed on a structure; - a laser light generator connected with the frame, including a laser light source for generating a laser light beam (4, 12, 25, 34); - a supply circuit for supplying the laser light source; - driving means (6,7) connected with the laser light generator, for having at least a part of the laser light generator move; and - a control element for controlling the laser light source and the drivable part of the laser light generator,
An antimicrobial and/or anti-inflammatory composition for implant cleaning and/or debridement of a hard surface in the oral cavity, which comprises a. nanoparticles of TiO 2, having a mean particle diameter (D 50) of 10-100 nm at a concentration between 0.5-500 g/L b. H 2 O 2 at a concentration of at the most 7.5% by volume, and c. solid microparticles having a mean particle diameter (D 50) of 100-200 μm at a concentration between about 0.5-300 g/L. a. nanoparticles of TiO 2, having a mean particle diameter (D 50) of 10-100 nm at a concentration between 0.5-500 g/L b. H 2 O 2 at a concentration of at the most 7.5% by volume, and c. solid microparticles having a mean particle diameter (D 50) of 100-200 μm at a concentration between about 0.5-300 g/L.
A monolayer polymer film comprising a polyvinylidene fluoride (PVDF) matrix and at least one core-shell impact modifier having a poly(organosiloxane) core and at least one thermoplastic shell, in which the content by weight of impact modifier varies between 2.5% and less than 40%.
A latency measurer (113, 201, 301) comprising: a message queue (212, 304, 305) to receive wrapped packets from tapping points, the wrapped packets each comprising a packet and a wrapper header, the wrapper header comprising: a capture timestamp; a tapping point identifier; a packet address and a packet port; a message content hash of a packet's message body; and if present in the packet, an inner address, and an inner port; characterised in that, the latency measurer (113, 201, 301) further comprises: a correlator (213, 302, 303) to, for each of a set of wrapped packets received from a set of tapping points: calculate a correlation key using wrapper header data; match wrapped packets having matching correlation keys; calculate a message latency through the set of set of tapping points using the capture timestamps of the matched wrapped packets. a capture timestamp; a tapping point identifier; a packet address and a packet port; a message content hash of a packet's message body; and if present in the packet, an inner address, and an inner port; calculate a correlation key using wrapper header data; match wrapped packets having matching correlation keys; calculate a message latency through the set of set of tapping points using the capture timestamps of the matched wrapped packets.
A flood prevention device for a vent or an air-brick comprising: a body having an outer side having at least one opening and an inner side having at least one opening; at least one channel formed through the body between the outer side and the at least one opening of the inner side; and a valve comprising a flap and a buoyancy structure, the flap being pivotally mounted to the body and having an outer side and an inner side, the flap having an open position in which gas is permitted to flow through the channel and a closed position in which the flap is pivoted from the open position to seal the channel; the buoyancy structure being formed on the outer side of the flap such that the valve is buoyant on water and if the outer side of the flap is exposed to a rising liquid level the centre of buoyancy of the valve is always located outwards of the flap and the buoyancy structure will act to move the flap from the open position to the closed position before the liquid level rises to the horizontal centre line of the flap; wherein the buoyancy structure comprises an air chamber formed on the outer side of the flap and having an open side, the open side of the air chamber being the lowermost side of the chamber when the flap is in the open position such that air can only enter and leave the chamber via said lowermost side and such that a volume of gas within the chamber is compressed by an increased pressure of liquid when the outer side of the flap is exposed to a rising liquid level. a body having an outer side having at least one opening and an inner side having at least one opening; at least one channel formed through the body between the outer side and the at least one opening of the inner side; and a valve comprising a flap and a buoyancy structure, the flap being pivotally mounted to the body and having an outer side and an inner side, the flap having an open position in which gas is permitted to flow through the channel and a closed position in which the flap is pivoted from the open position to seal the channel; the buoyancy structure being formed on the outer side of the flap such that the valve is buoyant on water and if the outer side of the flap is exposed to a rising liquid level the centre of buoyancy of the valve is always located outwards of the flap and the buoyancy structure will act to move the flap from the open position to the closed position before the liquid level rises to the horizontal centre line of the flap; wherein the buoyancy structure comprises an air chamber formed on the outer side of the flap and having an open side, the open side of the air chamber being the lowermost side of the chamber when the flap is in the open position such that air can only enter and leave the chamber via said lowermost side and such that a volume of gas within the chamber is compressed by an increased pressure of liquid when the outer side of the flap is exposed to a rising liquid level.
An mRNA molecule and a photosensitising agent for use in treating or preventing a disease, disorder or infection in a subject by expressing a polypeptide encoded by said mRNA molecule, wherein said mRNA is naked and is not bound or conjugated to or carried by any other component to aid its internalization and said photosensitising agent is a sulphonated meso-tetraphenyl chlorin, sulfonated tetraphenylporphine or a di- or tetrasulfonated aluminium phthalocyanine used in an amount of 0.0001 to 1μg.
A process for producing porous oxide ceramic workpieces provided with a yttrium-containing glass-ceramic layer, comprising the steps of (a) providing a suspension of glass particles of an oxide composition, the glass particles having either the following glass composition Y 2 O 3 10 - 20 % by mass Al 2 O 3 10 - 25 % by mass SiO 2 5 - 10 % by mass Li 2 CO 3 0 - 15 % by mass Na 2 CO 3 5 - 15 % by mass with Li 2 CO 3 + Na 2 CO 3 max. 15 % by mass MgCO 3 0 - 30 % by mass BaCO 3 10 - 30 % by mass with MgCO 3 + BaCO 3 max. 35 % by mass H 3 BO 3 15 - 30 % by mass or the following glass composition Y 2 O 3 20 - 30 % by mass Al 2 O 3 25 - 35 % by mass SiO 2 45 - 55 % by mass in a suspending agent, (b) applying the suspension to a surface of a porous oxide-ceramic workpiece in the form of a layer, (c) removing the suspending agent and heating the layer to a maximum temperature at which the layer at least softens, (d) holding the layer at the maximum temperature reached, (e) cooling the layer with the aid of a temperature-time regime at which at least one yttrium-containing crystal phase is formed, wherein the maximum temperature is <1250°C such that a surface of the workpiece is gas-tightly coated with the yttrium-containing glass-ceramic layer such that the glass melt does not penetrate further than 100 μm into the ceramic workpiece. (a) providing a suspension of glass particles of an oxide composition, the glass particles having either the following glass composition Y 2 O 3 10 - 20 % by mass Al 2 O 3 10 - 25 % by mass SiO 2 5 - 10 % by mass Li 2 CO 3 0 - 15 % by mass Na 2 CO 3 5 - 15 % by mass with Li 2 CO 3 + Na 2 CO 3 max. 15 % by mass MgCO 3 0 - 30 % by mass BaCO 3 10 - 30 % by mass with MgCO 3 + BaCO 3 max. 35 % by mass H 3 BO 3 15 - 30 % by mass or the following glass composition Y 2 O 3 20 - 30 % by mass Al 2 O 3 25 - 35 % by mass SiO 2 45 - 55 % by mass in a suspending agent, (b) applying the suspension to a surface of a porous oxide-ceramic workpiece in the form of a layer, (c) removing the suspending agent and heating the layer to a maximum temperature at which the layer at least softens, (d) holding the layer at the maximum temperature reached, (e) cooling the layer with the aid of a temperature-time regime at which at least one yttrium-containing crystal phase is formed,
An optical coupler device, comprising: a substrate (110, 410) having a substantially planar upper surface (112, 412); a grating structure (120, 510, 610) on the upper surface (112, 412) of the substrate (110, 410), the grating structure (120, 510, 610) comprising a copropagating array of waveguides (122, 520, 620) that are substantially parallel to each other and extend along at least a portion of the upper surface (112, 412), wherein each of the waveguides (122, 520, 620) has opposing sidewalls (124a, 124b, 524a, 524b, 624a, 624a), wherein a width of each waveguide (122, 520, 620) is defined by a distance between the opposing sidewalls, wherein the opposing sidewalls (124a, 124b, 524a, 524b, 624a, 624a) each having a periodic structure that produces a sidewall modulation for each of the waveguides (122, 520, 620); and an input port (132, 732) in optical communication with the grating structure (120, 510, 610), the input port configured to direct an input light beam in plane into the grating structure (120, 510, 610) such that the input light beam propagates along the array of waveguides (122, 520, 620); wherein the grating structure (120, 510, 610) is configured to diffract the input light beam out of plane and into free space; characterised in that the opposing sidewalls (124a, 124b, 524a, 524b, 624a, 624a) in each waveguide (122, 520, 620) have a serpentine or a semi-serpentine shape along a propagation direction based on the periodic structure of the sidewalls. a substrate (110, 410) having a substantially planar upper surface (112, 412); a grating structure (120, 510, 610) on the upper surface (112, 412) of the substrate (110, 410), the grating structure (120, 510, 610) comprising a copropagating array of waveguides (122, 520, 620) that are substantially parallel to each other and extend along at least a portion of the upper surface (112, 412), wherein each of the waveguides (122, 520, 620) has opposing sidewalls (124a, 124b, 524a, 524b, 624a, 624a), wherein a width of each waveguide (122, 520, 620) is defined by a distance between the opposing sidewalls, wherein the opposing sidewalls (124a, 124b, 524a, 524b, 624a, 624a) each having a periodic structure that produces a sidewall modulation for each of the waveguides (122, 520, 620); and an input port (132, 732) in optical communication with the grating structure (120, 510, 610), the input port configured to direct an input light beam in plane into the grating structure (120, 510, 610) such that the input light beam propagates along the array of waveguides (122, 520, 620); wherein the grating structure (120, 510, 610) is configured to diffract the input light beam out of plane and into free space; characterised in that the opposing sidewalls (124a, 124b, 524a, 524b, 624a, 624a) in each waveguide (122, 520, 620) have a serpentine or a semi-serpentine shape along a propagation direction based on the periodic structure of the sidewalls.
An ice crampon intended to be attached to a shoe, the ice crampon comprising: - a front part comprising at least one pair of front spikes offset from each other in a lateral direction of the front part; - a rear part comprising at least one pair of rear spikes offset from each other in a lateral direction of the rear part; - at least one flexible link which connects the front part and the rear part to each other in a longitudinal direction of the ice crampon; - at least one intermediate part mounted on the flexible link while being positioned between the front part and the rear part, the at least one intermediate part comprising at least one pair of intermediate spikes offset from each other in a lateral direction of the intermediate part; said at least one pair of front spikes, said at least one pair of rear spikes and said at least one pair of intermediate spikes being configured to prevent the ice crampon from slipping on a ground and in particular an icy ground; the front part, the rear part and said at least one intermediate part being independent in articulation from each other at least in the longitudinal direction and in said lateral directions, and the position of the intermediate part being adjustable with respect to the flexible link in the longitudinal direction, the at least one flexible link being configured to allow continuous adjustment of the position of the intermediate part with respect to the flexible link over the entire length of the flexible link. - a front part comprising at least one pair of front spikes offset from each other in a lateral direction of the front part; - a rear part comprising at least one pair of rear spikes offset from each other in a lateral direction of the rear part; - at least one flexible link which connects the front part and the rear part to each other in a longitudinal direction of the ice crampon; - at least one intermediate part mounted on the flexible link while being positioned between the front part and the rear part, the at least one intermediate part comprising at least one pair of intermediate spikes offset from each other in a lateral direction of the intermediate part; said at least one pair of front spikes, said at least one pair of rear spikes and said at least one pair of intermediate spikes being configured to prevent the ice crampon from slipping on a ground and in particular an icy ground; the front part, the rear part and said at least one intermediate part being independent in articulation from each other at least in the longitudinal direction and in said lateral directions, and the position of the intermediate part being adjustable with respect to the flexible link in the longitudinal direction, the at least one flexible link being configured to allow continuous adjustment of the position of the intermediate part with respect to the flexible link over the entire length of the flexible link.