mhurhangee/patent-ind-claim-en huggingface dataset:
A three-dimensional object having a shape of a bone and being printed from non-biological building materials, the object comprises a trabecular region at least partially surrounded by a cortical region , and a core region mimicking a bone marrow and being at least partially surrounded by said trabecular region and/or said cortical region; wherein said trabecular region comprises a three-dimensional textured region made of a digital material combining a first material and a second material in in a voxel-interlaced manner; wherein a hardness of said cortical region is higher than an overall hardness of said trabecular region, and a hardness of said core region is lower than an overall hardness of said trabecular region; and wherein said first material has a tensile strength of from about 40 to about 60 MPa according to ASTM D-638-03 and a modulus of elasticity of from about 1000 MPa to about 2600 MPa according to ASTM D-638-04, and said second material has a modulus of elasticity of from about 10 kPa to about 100 kPa according to ASTM D-575. wherein said trabecular region comprises a three-dimensional textured region made of a digital material combining a first material and a second material in in a voxel-interlaced manner; wherein a hardness of said cortical region is higher than an overall hardness of said trabecular region, and a hardness of said core region is lower than an overall hardness of said trabecular region; and wherein said first material has a tensile strength of from about 40 to about 60 MPa according to ASTM D-638-03 and a modulus of elasticity of from about 1000 MPa to about 2600 MPa according to ASTM D-638-04, and said second material has a modulus of elasticity of from about 10 kPa to about 100 kPa according to ASTM D-575.
An antenna module comprising at least one antenna array, wherein the antenna module comprises: a printed circuit board, PCB; a first dielectric having a plate shape for each radiator of the at least one antenna array, wherein a first side of the first dielectric is coupled to a first side of the PCB; a plurality of second dielectrics disposed on a second side opposite to the first side of the first dielectric , wherein a first side of the plurality of second dielectrics is separated from the second side of the first dielectric by a first distance, and wherein the first distance is the height of the plurality of second dielectrics; a first radiator disposed on the first side of the plurality of second dielectrics; and a feeder configured to supply a radio frequency, RF, signal to the first radiator , a plurality of third dielectrics disposed on the second side of the first dielectric wherein the feeder is disposed on the first dielectric and the plurality of third dielectrics, wherein the feeder comprises a first feeding line for a first polarization and a second feeding line for a second polarization, and wherein each of the first feeding line and the second feeding line extends to a first side of one of the plurality of third dielectrics opposite to the second side of the first dielectric, wherein the first feeding line and the second feeding line are separated from the second side of the first dielectric by a third distance being shorter than the first distance, wherein the plurality of second dielectrics are disposed to support the first radiator . a printed circuit board, PCB; a first dielectric having a plate shape for each radiator of the at least one antenna array, wherein a first side of the first dielectric is coupled to a first side of the PCB; a plurality of second dielectrics disposed on a second side opposite to the first side of the first dielectric , wherein a first side of the plurality of second dielectrics is separated from the second side of the first dielectric by a first distance, and wherein the first distance is the height of the plurality of second dielectrics; a first radiator disposed on the first side of the plurality of second dielectrics; and a feeder configured to supply a radio frequency, RF, signal to the first radiator , a plurality of third dielectrics disposed on the second side of the first dielectric wherein the feeder is disposed on the first dielectric and the plurality of third dielectrics, wherein the feeder comprises a first feeding line for a first polarization and a second feeding line for a second polarization, and wherein each of the first feeding line and the second feeding line extends to a first side of one of the plurality of third dielectrics opposite to the second side of the first dielectric, wherein the first feeding line and the second feeding line are separated from the second side of the first dielectric by a third distance being shorter than the first distance, wherein the plurality of second dielectrics are disposed to support the first radiator .
A method for performing, by a first apparatus, wireless communication, the method comprising: obtaining (S1410) a priority value related to a sidelink, SL, communication; obtaining (S1420) information related to a first SL threshold for prioritization between the SL communication and an uplink, UL, transmission; based on the UL transmission being related to a high priority: based on a second SL threshold related to ultra reliable and low latency communication, URLLC, being configured: performing a prioritization between the SL communication and the UL transmission related to URLLC, based on the priority value related to the SL communication and the second SL threshold; and performing (S1430) the prioritized one of the SL communication or the UL transmission; based on the second SL threshold being not configured, performing the UL transmission, wherein the SL communication and the UL transmission overlap in a time domain. obtaining (S1410) a priority value related to a sidelink, SL, communication; obtaining (S1420) information related to a first SL threshold for prioritization between the SL communication and an uplink, UL, transmission; based on the UL transmission being related to a high priority: based on a second SL threshold related to ultra reliable and low latency communication, URLLC, being configured: performing a prioritization between the SL communication and the UL transmission related to URLLC, based on the priority value related to the SL communication and the second SL threshold; and performing (S1430) the prioritized one of the SL communication or the UL transmission; based on the second SL threshold being not configured, performing the UL transmission, based on a second SL threshold related to ultra reliable and low latency communication, URLLC, being configured: performing a prioritization between the SL communication and the UL transmission related to URLLC, based on the priority value related to the SL communication and the second SL threshold; and performing (S1430) the prioritized one of the SL communication or the UL transmission; performing a prioritization between the SL communication and the UL transmission related to URLLC, based on the priority value related to the SL communication and the second SL threshold; and performing (S1430) the prioritized one of the SL communication or the UL transmission; based on the second SL threshold being not configured, performing the UL transmission, wherein the SL communication and the UL transmission overlap in a time domain.
An image heating unit detachably mountable to an image forming apparatus, comprising: a pair of rotatable members configured to form a nip for heating a toner image formed on a recording material; an outermost wall positioned outside said rotatable members; and an electrical substrate including a storing element , characterized in that said electrical substrate is mounted on an outer surface of said outermost wall so that said storing element faces the outer surface of said outermost wall with a predetermined gap therebetween. a pair of rotatable members configured to form a nip for heating a toner image formed on a recording material; an outermost wall positioned outside said rotatable members; and an electrical substrate including a storing element , characterized in that said electrical substrate is mounted on an outer surface of said outermost wall so that said storing element faces the outer surface of said outermost wall with a predetermined gap therebetween.
An apparatus configured to detect electromagnetic field events, the apparatus comprising: - a shielded loop magnetic field antenna configured to capture signals across a frequency range of 10MHz to 10GHz, wherein the electromagnetic field events have an electric field amplitude between 100 volts/meter and 100,000 volts/meter; and - a circuit electrically connected to the shielded loop magnetic field antenna, the circuit including: an equalizer communicatively connected to the antenna via a direct current isolation circuit, the equalizer configured to output signals having an amplitude independent of the frequency of detected signals, the equalizer configured to compensate for a frequency response of the antenna; a logarithmic amplifier electrically connected to the equalizer and configured to generate a range of signals based on signals received at the antenna; a peak detector receiving signals from the logarithmic amplifier and configured to capture a peak value of the signals; wherein the circuit is configured to determine a peak value of an electrical field of the electromagnetic field event based on the captured signals. - a shielded loop magnetic field antenna configured to capture signals across a frequency range of 10MHz to 10GHz, wherein the electromagnetic field events have an electric field amplitude between 100 volts/meter and 100,000 volts/meter; and - a circuit electrically connected to the shielded loop magnetic field antenna, the circuit including: an equalizer communicatively connected to the antenna via a direct current isolation circuit, the equalizer configured to output signals having an amplitude independent of the frequency of detected signals, the equalizer configured to compensate for a frequency response of the antenna; a logarithmic amplifier electrically connected to the equalizer and configured to generate a range of signals based on signals received at the antenna; a peak detector receiving signals from the logarithmic amplifier and configured to capture a peak value of the signals; wherein the circuit is configured to determine a peak value of an electrical field of the electromagnetic field event based on the captured signals. an equalizer communicatively connected to the antenna via a direct current isolation circuit, the equalizer configured to output signals having an amplitude independent of the frequency of detected signals, the equalizer configured to compensate for a frequency response of the antenna; a logarithmic amplifier electrically connected to the equalizer and configured to generate a range of signals based on signals received at the antenna; a peak detector receiving signals from the logarithmic amplifier and configured to capture a peak value of the signals; wherein the circuit is configured to determine a peak value of an electrical field of the electromagnetic field event based on the captured signals.
A method of selectively commissioning a node device by a coordinator device in a network created by said coordinator device , said method comprising the steps of: - storing , by said coordinator device, a commissioning start time; - transmitting , by said coordinator device , a network-available message indicating presence or availability of the network created by the coordinator device ; - receiving , by said coordinator device , a joining request transmitted by said node device upon receiving said network-available message, comprising a node temporal indication related to said commissioning start time of said node device; - determining , by said coordinator device , said commissioning start time of said coordinator device matches said node temporal indication, and - commissioning , by said coordinator device , said node device by joining said node device into said network. - storing , by said coordinator device, a commissioning start time; - transmitting , by said coordinator device , a network-available message indicating presence or availability of the network created by the coordinator device ; - receiving , by said coordinator device , a joining request transmitted by said node device upon receiving said network-available message, comprising a node temporal indication related to said commissioning start time of said node device; - determining , by said coordinator device , said commissioning start time of said coordinator device matches said node temporal indication, and - commissioning , by said coordinator device , said node device by joining said node device into said network.
A method of measuring the simultaneous individual muscle activity of the internal oblique and transverse abdominis, and optionally one or more additional deep muscles of the abdominal belt chosen from the multifidus, the rectus abdominis and the external oblique, of a subject performing muscle strengthening exercises for aesthetic or sporting purposes using non-invasive surface electromyographic sensors positioned in a non-circular arrangement along the targeted muscle comprising, for each deep muscle, the following steps (I) to (IV) a. A step (I) of acquisition of electrical signals from at least two sensors , the method being characterised by the fact that the number of sensors is between 2 and 5, b. A step (II) for recording the electrical signals acquired during step (I) in a memory , c. A step (III) of processing the signals recorded in step (II) based on the application to the signals recorded in step (II) of a combination of signal processing algorithms in a signal processing module comprising rectification, normalisation, smoothing, thresholding, and source separation analysis, and thus delivering a plurality of processed signals (s 1 (t), s 2 (t), s 3 (t)....s n (t)), d. A step (IV) of calculating an index from the signals obtained in step c., representative of the individual muscular activity of each of at least one deep muscle of the subject's abdominal belt, by means of the execution of algorithms within digital computing environments or within a processor, and its temporal evolution in an index calculation module . a. A step (I) of acquisition of electrical signals from at least two sensors , the method being characterised by the fact that the number of sensors is between 2 and 5, b. A step (II) for recording the electrical signals acquired during step (I) in a memory , c. A step (III) of processing the signals recorded in step (II) based on the application to the signals recorded in step (II) of a combination of signal processing algorithms in a signal processing module comprising rectification, normalisation, smoothing, thresholding, and source separation analysis, and thus delivering a plurality of processed signals (s 1 (t), s 2 (t), s 3 (t)....s n (t)), d. A step (IV) of calculating an index from the signals obtained in step c., representative of the individual muscular activity of each of at least one deep muscle of the subject's abdominal belt, by means of the execution of algorithms within digital computing environments or within a processor, and its temporal evolution in an index calculation module .
Trim element for a vehicle comprising: - at least one support , said support comprising an inner face and an outer face , - at least one skin layer having an inner face and an outer face , the inner face of the skin layer extending over at least part of the outer face of the support , - at least one seam extending over the skin layer , and - at least one protective element of the seam having an inner face and an outer face and extending over the support opposite the seam , the outer face of the protective element of the seam extending over the inner face of the support , the seam extending from the inner face of the protective element to the outer face of the skin layer , characterized in that the support comprises natural fibers and a matrix made of plastics material and in that the protective element is in the form of a woven or non-woven fabric. - at least one support , said support comprising an inner face and an outer face , - at least one skin layer having an inner face and an outer face , the inner face of the skin layer extending over at least part of the outer face of the support , - at least one seam extending over the skin layer , and - at least one protective element of the seam having an inner face and an outer face and extending over the support opposite the seam , the outer face of the protective element of the seam extending over the inner face of the support , the seam extending from the inner face of the protective element to the outer face of the skin layer ,
A process for manufacturing a composite sheet comprising: providing a substrate having a first outer surface and an opposing second outer surface; metalizing the first outer surface of the substrate to form thereon a metal layer; depositing on the metal layer a precursor of an outer polymeric coating layer to form a precursor film, the precursor being capable of being cured to form a three-dimensional network containing a plurality of linkages having a structure -A-R-B-, wherein A is an olefin group polymerically linked to another olefin group, B is a silane or isocyanate group cross-linked to another silane or isocyanate group, and R is a diradical comprising at least one of a C1 to C20 alkylene or aryl, each optionally substituted with a member selected from the group consisting of O, N, P and S, and wherein the alkylene can be linear, branched, or cyclic; and treating the precursor to form the outer polymeric coating layer, the treating comprising: creating free radicals in the precursor to induce polymerization of at least a portion thereof; and exposing the precursor film to water vapor. providing a substrate having a first outer surface and an opposing second outer surface; metalizing the first outer surface of the substrate to form thereon a metal layer; depositing on the metal layer a precursor of an outer polymeric coating layer to form a precursor film, the precursor being capable of being cured to form a three-dimensional network containing a plurality of linkages having a structure -A-R-B-, wherein A is an olefin group polymerically linked to another olefin group, B is a silane or isocyanate group cross-linked to another silane or isocyanate group, and R is a diradical comprising at least one of a C1 to C20 alkylene or aryl, each optionally substituted with a member selected from the group consisting of O, N, P and S, and wherein the alkylene can be linear, branched, or cyclic; and treating the precursor to form the outer polymeric coating layer, the treating comprising: creating free radicals in the precursor to induce polymerization of at least a portion thereof; and exposing the precursor film to water vapor. creating free radicals in the precursor to induce polymerization of at least a portion thereof; and exposing the precursor film to water vapor.
A polymerizable composition which contains a cycloolefin monomer; a metathesis polymerization catalyst; a radical generator; and (i) a compound (A) which has a methacryl group as a carbon-carbon unsaturated bond and as an active hydrogen reactable group an isocyanate group, wherein the amount of the compound (A) is 1 to 50 parts by weight with respect to 100 parts by weight of the cycloolefin monomer, or (ii) a combination of a compound (B1) which has at least two isocyanate groups as active hydrogen reactable groups and a compound (B2) which has a methacryl group as a carbon-carbon unsaturated bond and a hydroxyl group, wherein the amount of the compound (B1) is 1 to 50 parts by weight with respect to 100 parts by weight of the cycloolefin monomer and the amount of the compound (B2) is 1 to 50 parts by weight with respect to 100 parts by weight of the cycloolefin monomer. (i) a compound (A) which has a methacryl group as a carbon-carbon unsaturated bond and as an active hydrogen reactable group an isocyanate group, wherein the amount of the compound (A) is 1 to 50 parts by weight with respect to 100 parts by weight of the cycloolefin monomer, or (ii) a combination of a compound (B1) which has at least two isocyanate groups as active hydrogen reactable groups and a compound (B2) which has a methacryl group as a carbon-carbon unsaturated bond and a hydroxyl group, wherein the amount of the compound (B1) is 1 to 50 parts by weight with respect to 100 parts by weight of the cycloolefin monomer and the amount of the compound (B2) is 1 to 50 parts by weight with respect to 100 parts by weight of the cycloolefin monomer.
Standard attachment for a standard earpiece insertable into an ear canal in a direction of insertion , which standard attachment comprises a headpiece at one end and, adjoining the latter, a wing portion , wherein the outer contour of the headpiece is designed to allow the headpiece to bear on the wall of the ear canal at several points or on several lines, wherein a number of grooves extending substantially parallel to the direction of insertion are arranged on the outer circumference of the headpiece , wherein the or each groove on the outer circumference of the headpiece extends at least as far as the wing portion and wherein the wing portion has a number of openings passing through it from the outside to the inside, wherein each opening is assigned a respective groove , and wherein each groove opens into the respective opening assigned to it.
A compound eco-friendly stove, comprising: a main body , which has a top opening that is provided with a first cover and a second cover , the first cover and the second cover being arranged to define an airflow passage therebetween; a baking tray support , which is arranged in the top opening, the baking tray support receiving and supporting a baking tray thereon, portions of the baking tray support that are located at two sides of the baking tray being formed with multiple through holes ; a burner assembly, which is disposed in the main body at a location below the baking tray support ; a grill grate , which is disposed in the main body at a location below the burner assembly; a grease pan , which is disposed in the main body at a location below the grill grate ; and a lift handle , which is mounted to the second cover , wherein a space above the burner assembly functions as an oven for baking food, while a space below the burner assembly is simultaneously used as a grill so as to achieve the purposes of being multifunctional, saving energy, and eco-friendliness. a main body , which has a top opening that is provided with a first cover and a second cover , the first cover and the second cover being arranged to define an airflow passage therebetween; a baking tray support , which is arranged in the top opening, the baking tray support receiving and supporting a baking tray thereon, portions of the baking tray support that are located at two sides of the baking tray being formed with multiple through holes ; a burner assembly, which is disposed in the main body at a location below the baking tray support ; a grill grate , which is disposed in the main body at a location below the burner assembly; a grease pan , which is disposed in the main body at a location below the grill grate ; and a lift handle , which is mounted to the second cover , wherein a space above the burner assembly functions as an oven for baking food, while a space below the burner assembly is simultaneously used as a grill so as to achieve the purposes of being multifunctional, saving energy, and eco-friendliness.
A heat exchanger with a heat transfer surface provided with hyperthermophilic bacteria.