mhurhangee/ep-ind-claims huggingface dataset:
Hot air apparatus with a blower motor driving a ventilator rotor, a heating unit, arranged downstream of the ventilator rotor related to an air flow generated thereby and electrically driven and providing at the end a hot air outlet, and a housing, made at least in sections of a plastic material, at least surrounding the ventilator rotor in order to form a ventilator chamber and connecting the blower motor to the heating unit, characterised in that the blower motor and the heating unit are additionally mechanically connected by a connecting means (26; 34) in the form of a buckle, made of a metallic material, and the heating unit is held by the connecting means at the blower motor, in such a way that the connecting means prevent or make difficult any tipping and/or pivoting of the heating unit relative to the blower motor in the event of the housing being rendered unstable due to heat.
A process for producing a plurality of edible and biodegradable utensils, comprising the steps of: a) preparing an edible and biodegradable dough; b) rolling the dough to a desired thickness; c) cutting a plurality of utensil-shaped portions of the rolled dough; d) providing a platform for supporting a stacked assembly of molds adapted for securing to an oven rack; e) providing a plurality of mold members, each mold member comprising a first utensil complementary form disposed on the top surface thereof, and a second utensil-complementary form disposed on the bottom surface thereof; f) engaging one of the plurality of mold members on the platform; g) placing a utensil-shaped portion of uncooked dough on the utensil-complementary form of the platform-engaged mold member; h) contacting the dough with the second utensil-complementary form disposed on the bottom surface of a second mold member to form a first layer of utensil mold; i) repeating steps (f)-(h), wherein subsequent layers of molds are stacked on top of the first mold, the second mold member becoming the bottom mold member for subsequent layers, until a desired number of utensils are molded, thereby producing a stacked assembly of molded dough; j) placing the stacked assembly of molded dough on an oven rack; k) steaming the stacked assembly of molded dough; l) cooling the steamed dough; and m) removing the cooled utensils from the molds, thereby producing a plurality of edible and biodegradable utensils. a) preparing an edible and biodegradable dough; b) rolling the dough to a desired thickness; c) cutting a plurality of utensil-shaped portions of the rolled dough; d) providing a platform for supporting a stacked assembly of molds adapted for securing to an oven rack; e) providing a plurality of mold members, each mold member comprising a first utensil complementary form disposed on the top surface thereof, and a second utensil-complementary form disposed on the bottom surface thereof; f) engaging one of the plurality of mold members on the platform; g) placing a utensil-shaped portion of uncooked dough on the utensil-complementary form of the platform-engaged mold member; h) contacting the dough with the second utensil-complementary form disposed on the bottom surface of a second mold member to form a first layer of utensil mold; i) repeating steps (f)-(h), wherein subsequent layers of molds are stacked on top of the first mold, the second mold member becoming the bottom mold member for subsequent layers, until a desired number of utensils are molded, thereby producing a stacked assembly of molded dough; j) placing the stacked assembly of molded dough on an oven rack; k) steaming the stacked assembly of molded dough; l) cooling the steamed dough; and m) removing the cooled utensils from the molds, thereby producing a plurality of edible and biodegradable utensils.
A complex comprising: a flat plate-like metal fine particle formed of at least one type of metal or a compound thereof which is a metal salt, a metal complex, a metal alloy or metal oxide, said metal is silver, platinum or gold, wherein the flat plate-like metal fine particle has a particle size of 20-500 nm, wherein the particle size is measured by TEM according to the method disclosed in the description, wherein the flat plate-like metal fine particle has a plate-like shape of a triangle, hexagon or pentagon and has an average aspect ratio of 2.0 or more which is obtained by dividing the particle size by a particle thickness according to the method disclosed in the description; and at least one piece of finely-disintegrated cellulose combined with the flat plate-like metal fine particle, said finely-disintegrated cellulose has a crystal structure of cellulose type I and a carboxyl group on a crystal surface thereof, wherein the finely-disintegrated cellulose has a fibrous form derived from a microfibril structure of native cellulose, wherein at least a part of each piece of the finely-disintegrated cellulose is incorporated into the flat plate-like metal fine particle, and a remaining part is exposed from a surface of the flat plate-like metal fine particle. a flat plate-like metal fine particle formed of at least one type of metal or a compound thereof which is a metal salt, a metal complex, a metal alloy or metal oxide, said metal is silver, platinum or gold, wherein the flat plate-like metal fine particle has a particle size of 20-500 nm, wherein the particle size is measured by TEM according to the method disclosed in the description, wherein the flat plate-like metal fine particle has a plate-like shape of a triangle, hexagon or pentagon and has an average aspect ratio of 2.0 or more which is obtained by dividing the particle size by a particle thickness according to the method disclosed in the description; and at least one piece of finely-disintegrated cellulose combined with the flat plate-like metal fine particle, said finely-disintegrated cellulose has a crystal structure of cellulose type I and a carboxyl group on a crystal surface thereof, wherein the finely-disintegrated cellulose has a fibrous form derived from a microfibril structure of native cellulose, wherein at least a part of each piece of the finely-disintegrated cellulose is incorporated into the flat plate-like metal fine particle, and a remaining part is exposed from a surface of the flat plate-like metal fine particle.
An illumination unit comprising: first and second reflectors (200, 300); at least one light source module located between the first and second reflectors (200, 300); a bracket configured to support the light source module; and a cover member spaced apart from the first reflector and configured to cover the first reflector, characterised in that the bracket includes: a body configured to connect one side of the first reflector to one side of the second reflector; a first fastening member protruding orthogonally from an inner surface of the body toward the second reflector to fasten the body to the second reflector; and a second fastening member protruding orthogonally from an outer surface of the body in an opposite direction of the second reflector, one surface of the second fastening member coming into contact with the cover member, to fasten the body to the cover member. first and second reflectors (200, 300); at least one light source module located between the first and second reflectors (200, 300); a bracket configured to support the light source module; and a cover member spaced apart from the first reflector and configured to cover the first reflector, characterised in that the bracket includes: a body configured to connect one side of the first reflector to one side of the second reflector; a first fastening member protruding orthogonally from an inner surface of the body toward the second reflector to fasten the body to the second reflector; and a second fastening member protruding orthogonally from an outer surface of the body in an opposite direction of the second reflector, one surface of the second fastening member coming into contact with the cover member, to fasten the body to the cover member. a body configured to connect one side of the first reflector to one side of the second reflector; a first fastening member protruding orthogonally from an inner surface of the body toward the second reflector to fasten the body to the second reflector; and a second fastening member protruding orthogonally from an outer surface of the body in an opposite direction of the second reflector, one surface of the second fastening member coming into contact with the cover member, to fasten the body to the cover member.
A check valve system for a through hole in a wall of a compartment to limit a pressure difference between an inside and an outside of the compartment, comprising - a base having a flow passage with an open end and a sealing surface surrounding the open end, - an elastic membrane covering the open end, and - a protector covering at least a portion of the elastic membrane, wherein the elastic membrane is elastically stretched over and forced against the sealing surface surrounding the open end so as to seal the flow passage, characterized in that the elastic membrane is arranged to lift from the sealing surface when a pressure inside the flow passage under the elastic membrane exceeds a pressure above the elastic membrane by a pressure difference in the range of 1 mbar to 200 mbar, wherein the elastic membrane is a multilayer membrane comprising at least one elastic layer which is porous or comprises macroscopic openings and at least one porous stabilizing layer with limited extendibility. - a base having a flow passage with an open end and a sealing surface surrounding the open end, - an elastic membrane covering the open end, and - a protector covering at least a portion of the elastic membrane,
A weapon station comprising: a pedestal including an armored shell, the pedestal adapted to be mounted on an armored vehicle, wherein the pedestal defines an interior compartment accessible from within the armored vehicle; a weapon support yoke mounted on an exterior of the pedestal; an ammunition container having an ammunition storage portion and an ammunition exit chute leading from the storage portion and extending through the armored shell of the pedestal, wherein the ammunition container is fixed to the pedestal such that the storage portion of the ammunition container resides at least mostly within the interior compartment of the pedestal and the exit chute of the ammunition container extends through the pedestal, the storage portion of the ammunition container having a reload opening by which the ammunition container may be reloaded with ammunition; wherein the ammunition container is fixed to the pedestal such that the storage portion of the ammunition container is immovably suspended within the interior compartment of the pedestal; whereby a belt of linked ammunition is fed from the storage portion through the exit chute to supply a weapon carried by the weapon support yoke, and the fixed ammunition container is reloadable by personnel under protection of the armored vehicle and the pedestal. a pedestal including an armored shell, the pedestal adapted to be mounted on an armored vehicle, wherein the pedestal defines an interior compartment accessible from within the armored vehicle; a weapon support yoke mounted on an exterior of the pedestal; an ammunition container having an ammunition storage portion and an ammunition exit chute leading from the storage portion and extending through the armored shell of the pedestal, wherein the ammunition container is fixed to the pedestal such that the storage portion of the ammunition container resides at least mostly within the interior compartment of the pedestal and the exit chute of the ammunition container extends through the pedestal, the storage portion of the ammunition container having a reload opening by which the ammunition container may be reloaded with ammunition;
A method for manufacturing a security element for security papers, value documents and other data carriers, in which - a substrate (20, 54, 64) is equipped with at least two visually distinguishable ink regions by means of a first screen-printing cylinder, characterized in that - the substrate (20, 54, 64) is equipped with at least one third ink region (12A, 12C, 52A, 52D) visually distinguishable from the at least two other ink regions (12A, 12C, 52A) by means of a second screen-printing cylinder (31, 32), - wherein the ink regions (12A, 12C, 52A, 52C, 52D, 62A, 62D) are applied to the substrate (20, 54, 64) by means of the first and second screen-printing cylinder in one printing process and with a positioning accuracy of less than 0.3 mm relative to each other. - a substrate (20, 54, 64) is equipped with at least two visually distinguishable ink regions by means of a first screen-printing cylinder, characterized in that - the substrate (20, 54, 64) is equipped with at least one third ink region (12A, 12C, 52A, 52D) visually distinguishable from the at least two other ink regions (12A, 12C, 52A) by means of a second screen-printing cylinder (31, 32), - wherein the ink regions (12A, 12C, 52A, 52C, 52D, 62A, 62D) are applied to the substrate (20, 54, 64) by means of the first and second screen-printing cylinder in one printing process and with a positioning accuracy of less than 0.3 mm relative to each other.
An apparatus comprising at least one processor and at least one memory including computer instructions, when executed by the at least one processor, cause the apparatus to: receive, by a wireless device, an ambient orthogonal frequency-division multiplexing (OFDM) symbol that includes a cyclic prefix at a first portion of the OFDM symbol that is a copy of a second portion of the OFDM symbol; modulate, by the wireless device, at least part of the received ambient OFDM symbol, including: modulate either the first portion or the second portion of the ambient OFDM symbol with data; and reflect, by the wireless device, at least the first portion and the second portion of the modulated OFDM symbol, wherein causing the apparatus to modulate further comprises causing the apparatus to: modulate one of the first portion and the second portion of ambient OFDM symbol, which is not modulated with data, with an orthogonal code associated with the wireless device. receive, by a wireless device, an ambient orthogonal frequency-division multiplexing (OFDM) symbol that includes a cyclic prefix at a first portion of the OFDM symbol that is a copy of a second portion of the OFDM symbol; modulate, by the wireless device, at least part of the received ambient OFDM symbol, including: modulate either the first portion or the second portion of the ambient OFDM symbol with data; and reflect, by the wireless device, at least the first portion and the second portion of the modulated OFDM symbol, wherein causing the apparatus to modulate further comprises causing the apparatus to: modulate one of the first portion and the second portion of ambient OFDM symbol, which is not modulated with data, with an orthogonal code associated with the wireless device.
Container containing a concentrate for dialysis, which container comprises - a pouch or a cartridge containing a solid concentrate of constituents of the composition of the dialysis solution, the pouch or the cartridge being closed by - a connector provided with - a filling channel extending completely through the connector and intended for filling the pouch or the cartridge with the solid concentrate, - means for introducing a solution-forming liquid into the pouch or cartridge and for extracting the solution obtained from the pouch or the cartridge, these introduction and extraction means being provided with at least one connecting portion for connecting them to a corresponding port of the dialysis machine characterized in that the filling channel is closed by a stopper (10, 20, 30, 40) equipped with - a reservoir (R1, R2, R3, R4) containing a second constituent or group of constituents of the composition of the dialysis solution, and - means (131, 24, 34, 44) for producing in the reservoir an outlet opening (128, 228, 328, 428) contacting the inside of the reservoir with the side of the stopper located in the container. - a pouch or a cartridge containing a solid concentrate of constituents of the composition of the dialysis solution, the pouch or the cartridge being closed by - a connector provided with - a filling channel extending completely through the connector and intended for filling the pouch or the cartridge with the solid concentrate, - means for introducing a solution-forming liquid into the pouch or cartridge and for extracting the solution obtained from the pouch or the cartridge, these introduction and extraction means being provided with at least one connecting portion for connecting them to a corresponding port of the dialysis machine characterized in that the filling channel is closed by a stopper (10, 20, 30, 40) equipped with - a reservoir (R1, R2, R3, R4) containing a second constituent or group of constituents of the composition of the dialysis solution, and - means (131, 24, 34, 44) for producing in the reservoir an outlet opening (128, 228, 328, 428) contacting the inside of the reservoir with the side of the stopper located in the container. - a filling channel extending completely through the connector and intended for filling the pouch or the cartridge with the solid concentrate, - means for introducing a solution-forming liquid into the pouch or cartridge and for extracting the solution obtained from the pouch or the cartridge, these introduction and extraction means being provided with at least one connecting portion for connecting them to a corresponding port of the dialysis machine - a reservoir (R1, R2, R3, R4) containing a second constituent or group of constituents of the composition of the dialysis solution, and - means (131, 24, 34, 44) for producing in the reservoir an outlet opening (128, 228, 328, 428) contacting the inside of the reservoir with the side of the stopper located in the container.
A tool adaptor having an adaptor axis defining an adaptor forward-to-rear direction (DF, DR), and comprising: a front retaining portion having a base jaw, a clamping jaw, and an insert receiving pocket located therebetween, the insert receiving pocket having a lower support surface and an opposing upper clamping surface, and a rear mounting portion located axially rearward of the front retaining portion, the rear mounting portion having an axially rearward facing rear mounting surface and a first fastening bore, wherein: a primary slot separates the base jaw from the clamping jaw and communicates with the insert receiving pocket; a secondary slot transverse to the primary slot separates the clamping jaw from the rear mounting portion; characterised in that the first fastening bore has a first bore axis which intersects the rear mounting surface and the secondary slot. a front retaining portion having a base jaw, a clamping jaw, and an insert receiving pocket located therebetween, the insert receiving pocket having a lower support surface and an opposing upper clamping surface, and a rear mounting portion located axially rearward of the front retaining portion, the rear mounting portion having an axially rearward facing rear mounting surface and a first fastening bore, wherein: a primary slot separates the base jaw from the clamping jaw and communicates with the insert receiving pocket; a secondary slot transverse to the primary slot separates the clamping jaw from the rear mounting portion; characterised in that the first fastening bore has a first bore axis which intersects the rear mounting surface and the secondary slot. a primary slot separates the base jaw from the clamping jaw and communicates with the insert receiving pocket; a secondary slot transverse to the primary slot separates the clamping jaw from the rear mounting portion; characterised in that the first fastening bore has a first bore axis which intersects the rear mounting surface and the secondary slot.
A positive electrode material for a lithium ion secondary battery, the positive electrode material comprising: core particles represented by General Formula Li x A y D z PO 4 (here, A represents at least one element selected from the group consisting of Co, Mn, Ni, Fe, Cu, and Cr, D represents at least one element selected from the group consisting of Mg, Ca, Sr, Ba, Ti, Zn, B, Al, Ga, In, Si, Ge, Sc, and Y, 0.9 < x < 1.1, 0 < y ≤ 1, 0 ≤ z < 1, and 0.9 < y + z < 1.1); and a carbonaceous film coating a surface of the core particles, wherein in a Raman spectrum analysis of the carbonaceous film, in a case where a peak intensity of a spectrum in a wave number band of 1,200 to 1,400 cm -1 is set as a D value, a minimum intensity of the spectrum in a wave number band of 1,400 to 1,550 cm -1 is set as a V value, and a peak intensity of the spectrum in a wave number band of 1,550 to 1,700 cm -1 is set as a G value, an average value of D/G is 0.77 or more and 0.98 or less and an average value of V/G is 0.54 or more and 0.66 or less, and in a case where the average value of D/G is set as a and the average value of V/G is set as b, X falls within a range of -0.1 ≤ X ≤ 0.1 in Expression X = a - 1.47b, wherein the Raman spectrum is measured and analyzed in accordance with the method described in the description. core particles represented by General Formula Li x A y D z PO 4 (here, A represents at least one element selected from the group consisting of Co, Mn, Ni, Fe, Cu, and Cr, D represents at least one element selected from the group consisting of Mg, Ca, Sr, Ba, Ti, Zn, B, Al, Ga, In, Si, Ge, Sc, and Y, 0.9 < x < 1.1, 0 < y ≤ 1, 0 ≤ z < 1, and 0.9 < y + z < 1.1); and a carbonaceous film coating a surface of the core particles, wherein in a Raman spectrum analysis of the carbonaceous film, in a case where a peak intensity of a spectrum in a wave number band of 1,200 to 1,400 cm -1 is set as a D value, a minimum intensity of the spectrum in a wave number band of 1,400 to 1,550 cm -1 is set as a V value, and a peak intensity of the spectrum in a wave number band of 1,550 to 1,700 cm -1 is set as a G value, an average value of D/G is 0.77 or more and 0.98 or less and an average value of V/G is 0.54 or more and 0.66 or less, and in a case where the average value of D/G is set as a and the average value of V/G is set as b, X falls within a range of -0.1 ≤ X ≤ 0.1 in Expression X = a - 1.47b, wherein the Raman spectrum is measured and analyzed in accordance with the method described in the description.