mhurhangee/patent-ind-claim-en huggingface dataset:
Luminaire comprising a housing , and at least one operating device for operating one or more lamps of the luminaire , wherein the operating device is accommodated within the housing and has a transponder with a first antenna , which transponder is designed to receive signals from a communication device and/or to transmit signals to the communication device , characterized by a second antenna which is mounted on the housing and coupled to the first antenna , which second antenna is designed to receive signals transmitted by the communication device for forwarding to the first antenna by means of the coupling, and/or to transmit to the communication device signals transmitted by the transponder via the first antenna and obtained by means of the coupling, wherein the coupling is a radiation coupling, an inductive coupling, or a capacitive coupling, wherein for the radiation coupling the luminaire has a third antenna connected to the second antenna via a cable , which third antenna is designed to transmit to the first antenna the signals received by the second antenna from the communication device , and/or to receive the signals transmitted by the first antenna ; for the inductive coupling the luminaire has a coupling coil which is mounted on the first antenna and connected to the second antenna via a cable; or, for the capacitive coupling, the luminaire has a capacitor which is mounted on the first antenna and is connected to the second antenna via a cable , and the cable is a supply cable for the lamp , said supply cable leading out from the operating device . a housing , and at least one operating device for operating one or more lamps of the luminaire , wherein the operating device is accommodated within the housing and has a transponder with a first antenna , which transponder is designed to receive signals from a communication device and/or to transmit signals to the communication device , a second antenna which is mounted on the housing and coupled to the first antenna , which second antenna is designed to receive signals transmitted by the communication device for forwarding to the first antenna by means of the coupling, and/or to transmit to the communication device signals transmitted by the transponder via the first antenna and obtained by means of the coupling, wherein the coupling is a radiation coupling, an inductive coupling, or a capacitive coupling, wherein for the radiation coupling the luminaire has a third antenna connected to the second antenna via a cable , which third antenna is designed to transmit to the first antenna the signals received by the second antenna from the communication device , and/or to receive the signals transmitted by the first antenna ; for the inductive coupling the luminaire has a coupling coil which is mounted on the first antenna and connected to the second antenna via a cable; or, for the capacitive coupling, the luminaire has a capacitor which is mounted on the first antenna and is connected to the second antenna via a cable , and the cable is a supply cable for the lamp , said supply cable leading out from the operating device .
A medical device support system comprising: a central shaft ; an extension arm having a support for a medical device and a hub at its proximal end mounted to the central shaft for pivotable movement about the central shaft ; a brake clamp assembly secured in the hub for rotation therewith and including first and second clamp portions ; and, a brake actuator including a cap , a plunger coupled to the cap for reciprocable axial movement relative to the cap , and a spring disposed between the cap and the plunger and configured to exert a biasing force against movement of the cap axially toward the plunger , wherein the cap is adjustably mounted to the hub and coupled to the plunger to selectively urge the first and second clamp portions either toward or away from the central shaft to respectively increase or decrease a frictional braking force to the central shaft . a central shaft ; an extension arm having a support for a medical device and a hub at its proximal end mounted to the central shaft for pivotable movement about the central shaft ; a brake clamp assembly secured in the hub for rotation therewith and including first and second clamp portions ; and, a brake actuator including a cap , a plunger coupled to the cap for reciprocable axial movement relative to the cap , and a spring disposed between the cap and the plunger and configured to exert a biasing force against movement of the cap axially toward the plunger , wherein the cap is adjustably mounted to the hub and coupled to the plunger to selectively urge the first and second clamp portions either toward or away from the central shaft to respectively increase or decrease a frictional braking force to the central shaft .
A "roll-in" margarine composition with a reduced saturated fatty acids content comprising, in percentage by weight of the total weight of the composition, from 60% to 80% of a fatty phase and from 40% to 20% of an aqueous phase comprising water, proteins and dietary fibers, wherein said fatty phase consists of 30% to 45% of at least one vegetable fat rich in stearic acid and 70% to 55% of at least one vegetable oil, said dietary fibers are soluble fibers selected from the group consisting of beta-glucans, concentrated algae, pea fiber, potato fiber, psyllium fiber, guar fiber, and/or insoluble fibers selected from the group consisting of celluloses, wheat fiber, pea integument fiber, carrot fiber and bamboo fiber, and said proteins are selected from the group consisting of gluten, soy proteins and pea proteins.
A shoe , comprising: an upper ; an insole having a substantially planar top surface and a bottom surface opposite the top surface; a space between the upper and the insole defining a cavity adapted to receive a wearer's foot; an outsole having a bottom surface configured to contact the ground and a top surface opposite the bottom surface, the top surface of the outsole being permanently secured to the bottom surface of the insole and to a perimeter of the upper, and the bottom surface of the outsole having a tread pattern comprising a series of lateral ridges and troughs and a removable insert having a bottom surface configured to contact the substantially planar top surface of the insole and a top surface opposite the bottom surface and configured to contact a wearer's foot during wear, the bottom surface of the removable insert having a tread pattern that corresponds to the tread pattern of the outsole; wherein the removable insert is received within the cavity defined by the upper and the substantially planar top surface of the insole. an upper ; an insole having a substantially planar top surface and a bottom surface opposite the top surface; a space between the upper and the insole defining a cavity adapted to receive a wearer's foot; an outsole having a bottom surface configured to contact the ground and a top surface opposite the bottom surface, the top surface of the outsole being permanently secured to the bottom surface of the insole and to a perimeter of the upper, and the bottom surface of the outsole having a tread pattern comprising a series of lateral ridges and troughs and a removable insert having a bottom surface configured to contact the substantially planar top surface of the insole and a top surface opposite the bottom surface and configured to contact a wearer's foot during wear, the bottom surface of the removable insert having a tread pattern that corresponds to the tread pattern of the outsole; wherein the removable insert is received within the cavity defined by the upper and the substantially planar top surface of the insole.
Window sill assembly provided so as to extend over an outside wall and at least a part of a cavity wall , wherein the assembly comprises a frame and a window sill , wherein the frame comprises at least a rear segment and two side segments which are provided to support the window sill respectively at the position of its rear side and at the position of its sides, wherein the frame further comprises a front profile which is provided so as to extend at least partially over the outside wall for the purpose of supporting a front side of the window sill, wherein the window sill is provided at the position of the front side with a drip zone , all this such that water can be discharged via the drip zone from a position on the front profile, wherein the window sill assembly further comprises a foil or film sheet material which extends under the window sill, characterised in that the foil or film sheet material is connected on the rear side and the sides of the frame and extends to a position at the front profile.
Method for configuring a FTTH distribution network cell characterized by comprising the following steps: i. Connecting Optical Distribution Points, ODPs, , configured to attend N PC-ODF number of customers, to splitters of a Optical Splitter Joint, OSJ, module having the same split ratio, by means of fibre optical cables (140-1, ..., 140-4, 2-1, ... , 2-n) ; ii. assigning a number of optical fibres, N OF , to each ODP , as follows: N OF = N PC − ODP × % of target Penetration Rate + N RF Where N RF is the number of reserved optical fibres for an ODP ; iii. For each optical fibre cable terminated at the output side of the Optical Splitter Joint, OSJ, module : - allocate fibres with the lowest numbers - nearest to the fibre optic cable's (140-1, ..., 140-4, 2-1, ... , 2-n) central strength member to the farthest ODP relative to the OSJ module ; and - allocate fibres with the highest numbers - closest to the fibre optic cable's (140-1, ..., 140-4, 2-1, ... , 2-n) jacket - to the nearest ODP . i. Connecting Optical Distribution Points, ODPs, , configured to attend N PC-ODF number of customers, to splitters of a Optical Splitter Joint, OSJ, module having the same split ratio, by means of fibre optical cables (140-1, ..., 140-4, 2-1, ... , 2-n) ; ii. assigning a number of optical fibres, N OF , to each ODP , as follows: N OF = N PC − ODP × % of target Penetration Rate + N RF Where N RF is the number of reserved optical fibres for an ODP ; iii. For each optical fibre cable terminated at the output side of the Optical Splitter Joint, OSJ, module : - allocate fibres with the lowest numbers - nearest to the fibre optic cable's (140-1, ..., 140-4, 2-1, ... , 2-n) central strength member to the farthest ODP relative to the OSJ module ; and - allocate fibres with the highest numbers - closest to the fibre optic cable's (140-1, ..., 140-4, 2-1, ... , 2-n) jacket - to the nearest ODP . - allocate fibres with the lowest numbers - nearest to the fibre optic cable's (140-1, ..., 140-4, 2-1, ... , 2-n) central strength member to the farthest ODP relative to the OSJ module ; and - allocate fibres with the highest numbers - closest to the fibre optic cable's (140-1, ..., 140-4, 2-1, ... , 2-n) jacket - to the nearest ODP .
A compressor , comprising: a casing that is configured to cover an internal space including a first space and a second space larger than the first space, and includes a first casing part covering the first space and a second casing part covering the second space; a compression mechanism that generates a high-pressure fluid by compressing a low-pressure fluid; and a motor that drives the compression mechanism, wherein the first space and the second space are each a high-pressure space configured to contain the high-pressure fluid, or the second space is the high-pressure space and the first space is a low-pressure space configured to contain the low-pressure fluid, characterized in that : a metal-sprayed coating is formed on an outer surface of at least the first casing part; and a labyrinth seal by a sealing agent containing metallic flake is formed in holes of the metal-sprayed coating. a casing that is configured to cover an internal space including a first space and a second space larger than the first space, and includes a first casing part covering the first space and a second casing part covering the second space; a compression mechanism that generates a high-pressure fluid by compressing a low-pressure fluid; and a motor that drives the compression mechanism, wherein the first space and the second space are each a high-pressure space configured to contain the high-pressure fluid, or the second space is the high-pressure space and the first space is a low-pressure space configured to contain the low-pressure fluid, characterized in that : a metal-sprayed coating is formed on an outer surface of at least the first casing part; and a labyrinth seal by a sealing agent containing metallic flake is formed in holes of the metal-sprayed coating. a metal-sprayed coating is formed on an outer surface of at least the first casing part; and a labyrinth seal by a sealing agent containing metallic flake is formed in holes of the metal-sprayed coating.
A hydrocyclone separator for classifying solid material in liquid suspension, comprising a head part having an inlet conduit adapted to feed a suspension into the head part , and having an overflow discharge tube arranged axially into the head part , a conically tapered separation part , an adjustable apex discharge port , and a tail pipe , wherein the adjustable apex discharge port comprises an abrasive-resistant resilient body having a first section with a central tapered conical aperture forming a continuation of an inner wall of the conically tapered separation part , an apex orifice port , and a second section with a central aperture with a first end (313-1) facing the apex orifice port and a second end (313-2) facing and in communication with the tail pipe , characterised in that the adjustable apex discharge port further comprises an adjustment sleeve configured to circumferentially enclose the resilient body in an axial extension comprising the apex orifice port , with a first sleeve end circumferentially enclosing the first section , and a second sleeve end circumferentially enclosing the second section , which sleeve has a tapered conical surface configured to abut an outer surface of the resilient body , and which sleeve is arranged for axial displacement to thereby vary the size of the apex orifice port , wherein the second sleeve end is arranged so that the second end (313-2) of the second section at least is aligned with or extends beyond the second sleeve end and into the tail pipe . an abrasive-resistant resilient body having a first section with a central tapered conical aperture forming a continuation of an inner wall of the conically tapered separation part , an apex orifice port , and a second section with a central aperture with a first end (313-1) facing the apex orifice port and a second end (313-2) facing and in communication with the tail pipe , characterised in that the adjustable apex discharge port further comprises an adjustment sleeve configured to circumferentially enclose the resilient body in an axial extension comprising the apex orifice port , with a first sleeve end circumferentially enclosing the first section , and a second sleeve end circumferentially enclosing the second section , which sleeve has a tapered conical surface configured to abut an outer surface of the resilient body , and which sleeve is arranged for axial displacement to thereby vary the size of the apex orifice port , wherein the second sleeve end is arranged so that the second end (313-2) of the second section at least is aligned with or extends beyond the second sleeve end and into the tail pipe .
A hanger for mounting an exhaust liner to an exhaust duct , the hanger comprising: at least one cable (50;250A,250B) extending lengthwise between a first end and a second end ; a cable flange (52;252) having at least one cable aperture (92;292A,292B) configured to receive a portion of the cable (50;250A,250B), and a plurality of first tabs (68, 70; 268, 270) extending outwardly from a primary member ; and a J-shaped liner flange (54;254) configured for attachment to the exhaust liner ; wherein the liner flange (54;254) and cable flange (52;252) are configured to mate with one another to prevent substantial relative motion between the cable flange (52;252) and the liner flange (54;254) in a first direction (D1) and in a second direction (D2), wherein the first and second directions (D1,D2) are substantially orthogonal to one another. at least one cable (50;250A,250B) extending lengthwise between a first end and a second end ; a cable flange (52;252) having at least one cable aperture (92;292A,292B) configured to receive a portion of the cable (50;250A,250B), and a plurality of first tabs (68, 70; 268, 270) extending outwardly from a primary member ; and a J-shaped liner flange (54;254) configured for attachment to the exhaust liner ; wherein the liner flange (54;254) and cable flange (52;252) are configured to mate with one another to prevent substantial relative motion between the cable flange (52;252) and the liner flange (54;254) in a first direction (D1) and in a second direction (D2), wherein the first and second directions (D1,D2) are substantially orthogonal to one another.
A method in a baseband processor of a receiver for performing preamble detection and time-of-arrival, ToA, estimation for a single-tone frequency hopping random access preamble, said method comprising: Fast Fourier Transform, FFT, processing a received signal and identifying logical tones; and for each logical tone: reading received symbols; determining a ToA estimate and a residual Carrier Frequency Offset, CFO, estimate; forming a statistic based on the ToA estimate and the residual CFO estimate; comparing the statistic to a preamble threshold; and when the statistic is greater than or equal to the threshold, determining a preamble is present and utilizing, by the baseband processor of the receiver, the ToA estimate for a timing advance command. Fast Fourier Transform, FFT, processing a received signal and identifying logical tones; and for each logical tone: reading received symbols; determining a ToA estimate and a residual Carrier Frequency Offset, CFO, estimate; forming a statistic based on the ToA estimate and the residual CFO estimate; comparing the statistic to a preamble threshold; and when the statistic is greater than or equal to the threshold, determining a preamble is present and utilizing, by the baseband processor of the receiver, the ToA estimate for a timing advance command. reading received symbols; determining a ToA estimate and a residual Carrier Frequency Offset, CFO, estimate; forming a statistic based on the ToA estimate and the residual CFO estimate; comparing the statistic to a preamble threshold; and when the statistic is greater than or equal to the threshold, determining a preamble is present and utilizing, by the baseband processor of the receiver, the ToA estimate for a timing advance command.
A door of an oven with a heatable cavity; the door comprising: - an outer panel at least partially transparent; - an inner panel at least partially transparent and placed, in use, between the outer panel and the heatable cavity at a distance from the outer panel ; - a support frame configured to support the inner panel and the outer panel and which can be coupled to the oven ; and - a releasable snap lock coupling device configured to selectively couple/uncouple the inner panel to/from the frame ; the coupling device comprising at least one pin coupled to one of the frame and the inner panel , and at least one cap , provided with a seat substantially complementary to the pin and coupled to the other of the frame and the inner panel ; the at least one pin and the at least one seat being shaped so as to realize a self-centering guided coupling; characterised in that the coupling device comprising four caps , which are arranged at the corners of the quadrangular-shaped frame ; and four pins , which are arranged near the perimeter edge of the inner panel , so as to mate with the caps arranged on the frame ; each cap of the coupling device being made of a first polymeric material; and each pin being made of a second polymeric material, other than the first polymeric material, wherein the first polymeric material is a silicone material and the second polymeric material is a plastic material preferably transparent; each pin having a head , which has, at least in part, a substantially spherical profile; and each seat having a substantially hemispherical cavity . - an outer panel at least partially transparent; - an inner panel at least partially transparent and placed, in use, between the outer panel and the heatable cavity at a distance from the outer panel ; - a support frame configured to support the inner panel and the outer panel and which can be coupled to the oven ; and - a releasable snap lock coupling device configured to selectively couple/uncouple the inner panel to/from the frame ; the coupling device comprising at least one pin coupled to one of the frame and the inner panel , and at least one cap , provided with a seat substantially complementary to the pin and coupled to the other of the frame and the inner panel ; the at least one pin and the at least one seat being shaped so as to realize a self-centering guided coupling; the coupling device comprising four caps , which are arranged at the corners of the quadrangular-shaped frame ; and four pins , which are arranged near the perimeter edge of the inner panel , so as to mate with the caps arranged on the frame ; each cap of the coupling device being made of a first polymeric material; and each pin being made of a second polymeric material, other than the first polymeric material, wherein the first polymeric material is a silicone material and the second polymeric material is a plastic material preferably transparent; each pin having a head , which has, at least in part, a substantially spherical profile; and each seat having a substantially hemispherical cavity .
A method of producing a p-channel LDMOS transistor, comprising: - forming an n well in a semiconductor substrate by an implantation of n-dopants, - forming a p well in the n well by an implantation of p-dopants, - performing a further implantation of p-dopants in a p implant region in the n well under the p well in the vicinity of the p well , the p-implant region locally reducing the n-type conductivity of the n well without generating a net p-type conductivity in the n well thus improving the punch-through behavior of the transistor without requiring an increase of the distance between the p well and the lower boundary of the n well , - forming a drain region in the p well and a source region in the n well by an implantation of p-dopants, comprising forming the source region at a distance from the p well , and - arranging a gate electrode on a gate dielectric on an upper surface of the substrate , wherein - the substrate has a basic p-doping. - forming an n well in a semiconductor substrate by an implantation of n-dopants, - forming a p well in the n well by an implantation of p-dopants, - performing a further implantation of p-dopants in a p implant region in the n well under the p well in the vicinity of the p well , the p-implant region locally reducing the n-type conductivity of the n well without generating a net p-type conductivity in the n well thus improving the punch-through behavior of the transistor without requiring an increase of the distance between the p well and the lower boundary of the n well , - forming a drain region in the p well and a source region in the n well by an implantation of p-dopants, comprising forming the source region at a distance from the p well , and - arranging a gate electrode on a gate dielectric on an upper surface of the substrate , wherein - the substrate has a basic p-doping.