mhurhangee/patent-ind-claim-en huggingface dataset:
Tilting-decoupled steering apparatus for a motorcycle comprising a handlebar bridge for receiving a motorcycle handlebar , a fork bridge for receiving a fork leg , and a decoupling element which connects the handlebar bridge to the fork bridge , the handlebar bridge being mounted rotatably about a steering axis (L) and being fixed about a tilting axis (K) which is orthogonal with respect to the steering axis (L), the fork bridge being mounted rotatably about the steering axis (L) and about the tilting axis (K), the decoupling element being configured to transmit a steering movement in a steering direction (LR) about the steering axis (L) from the handlebar bridge to the fork bridge , characterized in that the decoupling element is elastic and is configured to compensate by way of elastic deformation a tilting movement in a tilting direction (KR) about the tilting axis (K), orthogonal with respect to the steering axis (L), of the fork bridge with respect to the handlebar bridge . a handlebar bridge for receiving a motorcycle handlebar , a fork bridge for receiving a fork leg , and a decoupling element which connects the handlebar bridge to the fork bridge , the handlebar bridge being mounted rotatably about a steering axis (L) and being fixed about a tilting axis (K) which is orthogonal with respect to the steering axis (L), the fork bridge being mounted rotatably about the steering axis (L) and about the tilting axis (K), the decoupling element being configured to transmit a steering movement in a steering direction (LR) about the steering axis (L) from the handlebar bridge to the fork bridge , characterized in that the decoupling element is elastic and is configured to compensate by way of elastic deformation a tilting movement in a tilting direction (KR) about the tilting axis (K), orthogonal with respect to the steering axis (L), of the fork bridge with respect to the handlebar bridge .
Cosmetic article comprising: - a solid block of cosmetic product having a breakage index measured at 20°C of between 0.2 and 20 N, and - at least one mesh arranged such that the product passes through said mesh and having through-holes , the largest dimension of which is between 50 and 450 μm. - a solid block of cosmetic product having a breakage index measured at 20°C of between 0.2 and 20 N, and - at least one mesh arranged such that the product passes through said mesh and having through-holes , the largest dimension of which is between 50 and 450 μm.
A semiconductor device, comprising: a first circuit and a second circuit formed in a semiconductor substrate ; a first guard structure (106-1) formed in the semiconductor substrate and disposed between the first circuit and the second circuit , the first guard structure (106-1) including first discontinuous pairs of n+ and p+ diffusions (108-1) disposed along a first axis; and a second guard structure (106-2) formed in the semiconductor substrate and disposed between the first circuit and the second circuit , the second guard structure (106-2) including second discontinuous pairs of n+ and p+ diffusions (108-2) disposed along the first axis, the second discontinuous pairs of n+ and p+ diffusions (108-2) being staggered with respect to the first discontinuous pairs of n+ and p+ diffusions (108-1) such that gaps (112-1) between the first discontinuous pairs of n+ and p+ diffusions (108-1) are not aligned with gaps (112-2) between the second discontinuous pairs of n+ and p+ diffusions (108-2) along a second axis perpendicular to the first axis. a first circuit and a second circuit formed in a semiconductor substrate ; a first guard structure (106-1) formed in the semiconductor substrate and disposed between the first circuit and the second circuit , the first guard structure (106-1) including first discontinuous pairs of n+ and p+ diffusions (108-1) disposed along a first axis; and a second guard structure (106-2) formed in the semiconductor substrate and disposed between the first circuit and the second circuit , the second guard structure (106-2) including second discontinuous pairs of n+ and p+ diffusions (108-2) disposed along the first axis, the second discontinuous pairs of n+ and p+ diffusions (108-2) being staggered with respect to the first discontinuous pairs of n+ and p+ diffusions (108-1) such that gaps (112-1) between the first discontinuous pairs of n+ and p+ diffusions (108-1) are not aligned with gaps (112-2) between the second discontinuous pairs of n+ and p+ diffusions (108-2) along a second axis perpendicular to the first axis.
An electric vehicle cabin heating system, the electric vehicle cabin heating system is an air conditioning and heating system, comprising: a first refrigerant circuit (S1) and a second refrigerant circuit (S2) that are connected in parallel, the first refrigerant circuit (S1) and the second refrigerant circuit (S2) each comprise: a gas-liquid separator and a compressor that are connected in series; wherein, the first refrigerant circuit (S1) further comprises: a first expansion unit; the second refrigerant circuit (S2) further comprises: a second expansion unit and a condenser ; the first expansion unit is connected to the second expansion unit and the condenser in parallel; characterised in that the second expansion unit comprises a second electronic expansion valve and a third electronic expansion valve , the third electronic expansion valve is arranged upstream of the condenser , and the second electronic expansion valve is arranged downstream of the condenser ; and the electric vehicle cabin heating system is configured as a refrigerant in the second refrigerant circuit (S2) undergoes pressure regulation via the third electronic expansion valve and then enters the condenser to release heat for heating a cabin, and after the refrigerant released heat undergoing throttling via the second electronic expansion valve , it converges with the refrigerant which undergoes throttling and pressure reduction via the first expansion unit in the first refrigerant circuit (S1) in the gas-liquid separator , the converging refrigerant enters the compressor for cycling. wherein, the first refrigerant circuit (S1) further comprises: a first expansion unit; the second refrigerant circuit (S2) further comprises: a second expansion unit and a condenser ; the first expansion unit is connected to the second expansion unit and the condenser in parallel; characterised in that the second expansion unit comprises a second electronic expansion valve and a third electronic expansion valve , the third electronic expansion valve is arranged upstream of the condenser , and the second electronic expansion valve is arranged downstream of the condenser ; and the electric vehicle cabin heating system is configured as a refrigerant in the second refrigerant circuit (S2) undergoes pressure regulation via the third electronic expansion valve and then enters the condenser to release heat for heating a cabin, and after the refrigerant released heat undergoing throttling via the second electronic expansion valve , it converges with the refrigerant which undergoes throttling and pressure reduction via the first expansion unit in the first refrigerant circuit (S1) in the gas-liquid separator , the converging refrigerant enters the compressor for cycling.
A virtual image display device comprising: a display unit configured to generate an image display light (L) by modulating an illumination light; a windshield provided in a vehicle and having a uniform thickness, and a projection optical system that includes: a concave mirror configured to reflect the image display light toward the windshield , characterized in that the projection optical system further includes a convex lens provided between the display unit and the concave mirror, wherein the display unit is provided at a position closer to the convex lens than a focal point , within a meridional plane, of a composite optical system formed by the windshield and the projection optical system, and a focal distance of the concave mirror is longer than a focal distance of the convex lens. a display unit configured to generate an image display light (L) by modulating an illumination light; a windshield provided in a vehicle and having a uniform thickness, and a projection optical system that includes: a concave mirror configured to reflect the image display light toward the windshield , characterized in that the projection optical system further includes a convex lens provided between the display unit and the concave mirror, wherein the display unit is provided at a position closer to the convex lens than a focal point , within a meridional plane, of a composite optical system formed by the windshield and the projection optical system, and a focal distance of the concave mirror is longer than a focal distance of the convex lens. a concave mirror configured to reflect the image display light toward the windshield , characterized in that the projection optical system further includes a convex lens provided between the display unit and the concave mirror, wherein the display unit is provided at a position closer to the convex lens than a focal point , within a meridional plane, of a composite optical system formed by the windshield and the projection optical system, and a focal distance of the concave mirror is longer than a focal distance of the convex lens.
An optoelectronic sensor , in particular a laser scanner, for detecting objects in a monitored area , wherein the sensor comprises a scanning unit movable about an axis of rotation and having a plurality of scanning modules accommodated therein for periodically scanning the monitored area and for generating corresponding received signals, and a control and evaluation unit for generating information about the objects from the received signals, wherein the scanning modules each comprise a light transmitter for transmitting a light beam and a light receiver for generating a respective received signal from the light beam reflected by the objects , and wherein for adjusting an angle of elevation of a scanning plane detected by a respective scanning module with respect to a central scanning plane perpendicular to the axis of rotation the scanning modules are arranged on sections of a circuit board which are variable in their inclination, characterized in that the circuit board is configured as a rotating circuit board and as a base plate of the scanning unit in a plane perpendicular to the axis of rotation that has movable or bendable sections in order to incline or tilt the sections out of the plane of the base plate.
A self-supporting film comprising - green luminescent crystals - red luminescent crystals , and - a polymer , wherein the green luminescent crystals are perovskite crystals selected from compounds of formula (I) : [M 1 A 1 ] a M 2 b X c (I), wherein: A 1 represents one or more organic cations, in particular formamidinium (FA), M 1 represents one or more alkaline metals, in particular Cs, M 2 represents one or more metals other than M 1 , in particular Pb, X represents one or more anions selected from the group consisting of halides, pseudohalides and sulfides, in particular Br, a represents 1-4, b represents 1-2, c represents 3-9, and wherein either M 1 , or A 1 , or M 1 and A 1 being present; wherein the red luminescent crystals are zincblende or wurzite, preferably zincblende, crystals selected from compounds of formula (II) [M 3 M 3 '] ] (II), wherein: M 3 , M 3 ' represent Al, Ga, In, in particular In and Y, Y' represent N, P, As, Sb, in particular P and M 3 ', Y' may or may not be present, or M 3 , M 3 ' represent Zn, Cd, Be in particular Cd, and Y, Y' represent S, Se, Te in particular Se, and M 3 ', Y' may or may not be present, and wherein a concentration of M 2 is 5 - 200 mg/m 2 , preferably 10 - 100 mg/m 2 , very preferably 20 - 80 mg/m 2 . - green luminescent crystals - red luminescent crystals , and - a polymer , wherein the green luminescent crystals are perovskite crystals selected from compounds of formula (I) : [M 1 A 1 ] a M 2 b X c (I), wherein: A 1 represents one or more organic cations, in particular formamidinium (FA), M 1 represents one or more alkaline metals, in particular Cs, M 2 represents one or more metals other than M 1 , in particular Pb, X represents one or more anions selected from the group consisting of halides, pseudohalides and sulfides, in particular Br, a represents 1-4, b represents 1-2, c represents 3-9, and A 1 represents one or more organic cations, in particular formamidinium (FA), M 1 represents one or more alkaline metals, in particular Cs, M 2 represents one or more metals other than M 1 , in particular Pb, X represents one or more anions selected from the group consisting of halides, pseudohalides and sulfides, in particular Br, a represents 1-4, b represents 1-2, c represents 3-9, and wherein either M 1 , or A 1 , or M 1 and A 1 being present; wherein the red luminescent crystals are zincblende or wurzite, preferably zincblende, crystals selected from compounds of formula (II) [M 3 M 3 '] ] (II), wherein: M 3 , M 3 ' represent Al, Ga, In, in particular In and Y, Y' represent N, P, As, Sb, in particular P and M 3 ', Y' may or may not be present, or M 3 , M 3 ' represent Zn, Cd, Be in particular Cd, and Y, Y' represent S, Se, Te in particular Se, and M 3 ', Y' may or may not be present, and M 3 , M 3 ' represent Al, Ga, In, in particular In and Y, Y' represent N, P, As, Sb, in particular P and M 3 ', Y' may or may not be present, or M 3 , M 3 ' represent Zn, Cd, Be in particular Cd, and Y, Y' represent S, Se, Te in particular Se, and M 3 ', Y' may or may not be present, and wherein a concentration of M 2 is 5 - 200 mg/m 2 , preferably 10 - 100 mg/m 2 , very preferably 20 - 80 mg/m 2 .
Sulfur-crosslinkable rubber mixture containing at least the following constituents: - at least one polymer constructed from 84% to 88% by weight of ethylene oxide and 2% to 4% of propylene oxide and 10% to 12% of allyl glycidyl ether and - at least one diene rubber selected from the group consisting of natural polyisoprene and synthetic polyisoprene and butadiene rubber and styrene-butadiene rubber and - at least one filler, wherein said mixture contains as at least one filler at least 0.1 to 100 phr of at least one carbon black. - at least one polymer constructed from 84% to 88% by weight of ethylene oxide and 2% to 4% of propylene oxide and 10% to 12% of allyl glycidyl ether and - at least one diene rubber selected from the group consisting of natural polyisoprene and synthetic polyisoprene and butadiene rubber and styrene-butadiene rubber and - at least one filler, wherein said mixture contains as at least one filler at least 0.1 to 100 phr of at least one carbon black.
A shutter locking assembly including: a bolt carriage ; a locking bolt slidingly engageable with the bolt carriage between an extended position and a retracted position; a biasing (actuator) means operatively connected to the locking bolt and the bolt carriage ; the bolt carriage being inserted into a shutter slat cavity, characterized in that the biasing (actuator) means being a single leaf spring , and the locking bolt being movable by movement of the shutter slat between an up (open) position and a down (locked) position, by action of the single leaf spring within the shutter slat cavity, the shutter slat when in a down (locked) position urges against the single leaf spring to extend the locking bolt to engage with a locking bolt receiving opening adjacent to the shutter slat , and when in an up (open position) the locking bolt is retracted. a bolt carriage ; a locking bolt slidingly engageable with the bolt carriage between an extended position and a retracted position; a biasing (actuator) means operatively connected to the locking bolt and the bolt carriage ; the bolt carriage being inserted into a shutter slat cavity, characterized in that the biasing (actuator) means being a single leaf spring , and the locking bolt being movable by movement of the shutter slat between an up (open) position and a down (locked) position, by action of the single leaf spring within the shutter slat cavity, the shutter slat when in a down (locked) position urges against the single leaf spring to extend the locking bolt to engage with a locking bolt receiving opening adjacent to the shutter slat , and when in an up (open position) the locking bolt is retracted.
A port cannula system , comprising a cannula holder , a cannula secured to the cannula holder with a cannula tip, which can be moved at least into a puncture position and a safety position, a safety section (11-1, 12, 13, 14), which surrounds the cannula tip at least in sections in the safety position, a feeder connected to the cannula and at least one support piece connected to the cannula holder for supporting the port cannula system on a patient's skin, wherein the at least one support piece is connected to the cannula holder by means of a hinge and wherein the cannula holder comprises a lower holder segment connected to the support piece which provides a step (11-2) such that the lower holder segment is spaced apart from the patient's skin in a state of the port cannula system where it is supported on the patient's skin.
A centrifugal compressor impeller (60; 160) comprising: a hub (62; 162) having a gaspath surface (64; 164) extending from a leading end to a trailing end; a plurality of blades (70A, 70B; 170) extending from the hub gaspath surface and each having: a leading edge (72A, 72B; 172); a trailing edge (74A, 74B; 174); a first face (80A, 80B; 180); a second face (82A, 82B; 182); and a tip (78A, 78B; 178); and a plurality of flow splitter segments (120, 122; 220, 222) extending between associated twos of the blades and each spaced from both the hub gaspath surface and the tips of the associated two blades; characterised in that : the plurality of flow splitter segments is a first plurality of flow splitter segments (120; 220) and the impeller further comprises a second plurality of flow splitter segments (122; 220) extending between the blades and spaced from both the hub gaspath surface and the tips of the blades; the first plurality of flow splitter segments (120; 220) is within an upstream third of a flowpath length from the leading edges to the trailing edges; and the second plurality of flow splitter segments (122; 222) is within a downstream third of said flowpath length from the leading edges to the trailing edges. a hub (62; 162) having a gaspath surface (64; 164) extending from a leading end to a trailing end; a plurality of blades (70A, 70B; 170) extending from the hub gaspath surface and each having: a leading edge (72A, 72B; 172); a trailing edge (74A, 74B; 174); a first face (80A, 80B; 180); a second face (82A, 82B; 182); and a tip (78A, 78B; 178); and a leading edge (72A, 72B; 172); a trailing edge (74A, 74B; 174); a first face (80A, 80B; 180); a second face (82A, 82B; 182); and a tip (78A, 78B; 178); and a plurality of flow splitter segments (120, 122; 220, 222) extending between associated twos of the blades and each spaced from both the hub gaspath surface and the tips of the associated two blades; the plurality of flow splitter segments is a first plurality of flow splitter segments (120; 220) and the impeller further comprises a second plurality of flow splitter segments (122; 220) extending between the blades and spaced from both the hub gaspath surface and the tips of the blades; the first plurality of flow splitter segments (120; 220) is within an upstream third of a flowpath length from the leading edges to the trailing edges; and the second plurality of flow splitter segments (122; 222) is within a downstream third of said flowpath length from the leading edges to the trailing edges.
A process for producing a perfluoropolyether acyl fluoride which comprises reducing a peroxyperfluoropolyether by using formic acid or formic acid derivative in the presence of a transition metal catalyst.
A separator comprising: a substrate; and a surface layer formed on at least one surface of the substrate and having a higher porosity than that of the substrate, characterized in that the surface layer includes a first layer having convexities and concavities existing as cavities; and a second layer formed between the first layer and the substrate, the second layer has a higher porosity than that of the substrate, and wherein the first layer has a higher porosity than that of the second layer, wherein the first layer is formed to have a thickness equivalent to the thickness of the second layer, or to have a thickness thicker than the thickness of the second layer. a substrate; and a surface layer formed on at least one surface of the substrate and having a higher porosity than that of the substrate, characterized in that the surface layer includes a first layer having convexities and concavities existing as cavities; and a second layer formed between the first layer and the substrate, the second layer has a higher porosity than that of the substrate, and wherein the first layer has a higher porosity than that of the second layer, wherein the first layer is formed to have a thickness equivalent to the thickness of the second layer, or to have a thickness thicker than the thickness of the second layer.
A device for executing vacuum processing on a reinforcement fiber (F), comprising: a chamber capable of keeping the chamber as a whole in a depressurized state; a feeding roller so disposed as to hang the reinforcement fiber (F) down in the chamber ; a processor so disposed in the chamber as to pass the reinforcement fiber (F) hung down in the chamber through the processor ; a capture device ; a winding bobbin configured to wind the reinforcement fiber (F) processed by the processor ; and a resilient cord withdrawn in synchronism with the winding bobbin from a first position where the resilient cord surrounds a leading end (Fe) of the reinforcement fiber (F) kept in place by the capture device to a second position where the resilient cord gets in contact with and leads the reinforcement fiber (F) to the winding bobbin , characterized in that the capture device is so disposed as to capture and keep in place the leading end (Fe) passing the processor and vertically falling down. a chamber capable of keeping the chamber as a whole in a depressurized state; a feeding roller so disposed as to hang the reinforcement fiber (F) down in the chamber ; a processor so disposed in the chamber as to pass the reinforcement fiber (F) hung down in the chamber through the processor ; a capture device ; a winding bobbin configured to wind the reinforcement fiber (F) processed by the processor ; and a resilient cord withdrawn in synchronism with the winding bobbin from a first position where the resilient cord surrounds a leading end (Fe) of the reinforcement fiber (F) kept in place by the capture device to a second position where the resilient cord gets in contact with and leads the reinforcement fiber (F) to the winding bobbin , characterized in that the capture device is so disposed as to capture and keep in place the leading end (Fe) passing the processor and vertically falling down.