mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting downlink control information in a wireless communication system, the method comprising: transmitting, by a base station, information indicating a number of orthogonal frequency division multiplexing, OFDM, symbols comprising control information on a downlink control channel using one of prescribed codes, wherein each of the prescribed codes corresponds to a respective number of the OFDM symbols comprising the control information; and transmitting the control information through the downlink control channel, wherein the information indicating the number of OFDM symbols comprising the control information on the downlink control channel is transmitted on 16 quadrature phase shift keying, QPSK, symbols, wherein the prescribed codes are , (1,0,1,1,0,1,1,011,1,0,1,1,0;1,1,0,1,11,1,0,1,1,0,1,1,0,1,1,0), and . transmitting, by a base station, information indicating a number of orthogonal frequency division multiplexing, OFDM, symbols comprising control information on a downlink control channel using one of prescribed codes, wherein each of the prescribed codes corresponds to a respective number of the OFDM symbols comprising the control information; and transmitting the control information through the downlink control channel, wherein the information indicating the number of OFDM symbols comprising the control information on the downlink control channel is transmitted on 16 quadrature phase shift keying, QPSK, symbols, wherein the prescribed codes are , (1,0,1,1,0,1,1,011,1,0,1,1,0;1,1,0,1,11,1,0,1,1,0,1,1,0,1,1,0), and . , (1,0,1,1,0,1,1,011,1,0,1,1,0;1,1,0,1,11,1,0,1,1,0,1,1,0,1,1,0), and .
A method of forming an irradiation sterilized urinary assembly catheter, comprising: applying a hydrophilic coating directly on a surface of a urinary catheter without treating the surface of the urinary catheter, the hydrophilic coating including a hydrophilic polymer and low molecular weight diacrylate; placing the urinary catheter having the hydrophilic coating thereon and a wetting fluid in a gas impermeable package, wherein the wetting fluid is in contact with the hydrophilic coating, and the wetting fluid contains one or more non-polymeric polyols; and exposing the package to sterilizing radiation. applying a hydrophilic coating directly on a surface of a urinary catheter without treating the surface of the urinary catheter, the hydrophilic coating including a hydrophilic polymer and low molecular weight diacrylate; placing the urinary catheter having the hydrophilic coating thereon and a wetting fluid in a gas impermeable package, wherein the wetting fluid is in contact with the hydrophilic coating, and the wetting fluid contains one or more non-polymeric polyols; and exposing the package to sterilizing radiation.
A method of manufacturing an anti-icing honeycomb core composite , the method comprising: a forming step of forming an electromagnetic wave absorption layer having a thickness of 0.117 mm to 0.468 mm by using dielectric fiber; a molding step of molding the electromagnetic wave absorption layer into a honeycomb core structure by using a molded part comprising a first base , a second base , and an inner block ; a hardening step of hardening the honeycomb core structure ; and a removal step of removing the molded part, wherein the molding step comprises: a first stacking step of stacking, on the first base comprising a plurality of grooves in which the inner blocks are able to be seated, a plurality of the inner blocks and a plurality of the electromagnetic wave absorption layers as the honeycomb core structure so that the electromagnetic wave absorption layer is disposed between the plurality of inner blocks ; and a second stacking step of covering the inner blocks and the electromagnetic wave absorption layers stacked on the first base with the second base having a shape identical with a shape of the first base . a forming step of forming an electromagnetic wave absorption layer having a thickness of 0.117 mm to 0.468 mm by using dielectric fiber; a molding step of molding the electromagnetic wave absorption layer into a honeycomb core structure by using a molded part comprising a first base , a second base , and an inner block ; a hardening step of hardening the honeycomb core structure ; and a removal step of removing the molded part, wherein the molding step comprises: a first stacking step of stacking, on the first base comprising a plurality of grooves in which the inner blocks are able to be seated, a plurality of the inner blocks and a plurality of the electromagnetic wave absorption layers as the honeycomb core structure so that the electromagnetic wave absorption layer is disposed between the plurality of inner blocks ; and a second stacking step of covering the inner blocks and the electromagnetic wave absorption layers stacked on the first base with the second base having a shape identical with a shape of the first base . a first stacking step of stacking, on the first base comprising a plurality of grooves in which the inner blocks are able to be seated, a plurality of the inner blocks and a plurality of the electromagnetic wave absorption layers as the honeycomb core structure so that the electromagnetic wave absorption layer is disposed between the plurality of inner blocks ; and a second stacking step of covering the inner blocks and the electromagnetic wave absorption layers stacked on the first base with the second base having a shape identical with a shape of the first base .
A wireless communication system comprising: a wireless terminal , a plurality of base stations that communicate with the wireless terminal using at least one of a plurality of frequencies; and a control device that controls the plurality of base stations , wherein each of the plurality of base stations includes a transmitter configured to transmit information related to availability for at least one frequency among the plurality of frequencies shared by the plurality of base stations to the control device , and the control device includes: a receiver configured to receive the information related to the availability, and a controller configured to control a frequency used for transmission of the same data by the plurality of base stations . a wireless terminal , a plurality of base stations that communicate with the wireless terminal using at least one of a plurality of frequencies; and a control device that controls the plurality of base stations , wherein each of the plurality of base stations includes a transmitter configured to transmit information related to availability for at least one frequency among the plurality of frequencies shared by the plurality of base stations to the control device , and the control device includes: a receiver configured to receive the information related to the availability, and a controller configured to control a frequency used for transmission of the same data by the plurality of base stations . a receiver configured to receive the information related to the availability, and a controller configured to control a frequency used for transmission of the same data by the plurality of base stations .
An article , comprising: a first cylinder formed of foamed interconnected thermoplastic polymeric members forming: a cylindrically shaped outer surface , wherein the foamed interconnected thermoplastic polymeric members define a first plurality of openings through the cylindrically shaped outer surface , and a cylindrically shaped inner surface spaced from the cylindrically shaped outer surface , wherein the foamed interconnected thermoplastic polymeric members define a second plurality of openings through the cylindrically shaped inner surface , wherein the foamed interconnected thermoplastic polymeric members forming the first cylinder have varying sizes defining the first plurality of openings and the second plurality of openings , wherein the foamed interconnected thermoplastic polymeric members connect the cylindrically shaped outer surface and the cylindrically shaped inner surface , and wherein the foamed interconnected thermoplastic polymeric members block some of the first plurality of openings and some of the second plurality of openings . a cylindrically shaped outer surface , wherein the foamed interconnected thermoplastic polymeric members define a first plurality of openings through the cylindrically shaped outer surface , and a cylindrically shaped inner surface spaced from the cylindrically shaped outer surface , wherein the foamed interconnected thermoplastic polymeric members define a second plurality of openings through the cylindrically shaped inner surface , wherein the foamed interconnected thermoplastic polymeric members forming the first cylinder have varying sizes defining the first plurality of openings and the second plurality of openings , wherein the foamed interconnected thermoplastic polymeric members connect the cylindrically shaped outer surface and the cylindrically shaped inner surface , and wherein the foamed interconnected thermoplastic polymeric members block some of the first plurality of openings and some of the second plurality of openings .
A sensing device comprising: a header having a first working surface , the first working surface composed of a first one or more electrically conductive pads and a bulk of the header ; a sensor die attached to the header , the sensor die having a second working surface and a third surface reverse of the second working surface , the sensor die including: a sensing element on the second working surface ; one or more electrically conductive doped regions proximate the sensing element ; and one or more electrically conductive pins extending from the third surface partially through the sensor die into the one or more electrically conductive doped regions , wherein the third surface of the sensor die is composed of a second one or more electrically conductive pads and a dielectric layer , wherein the second one or more electrically conductive pads is coupled to the one or more electrically conductive pins ; wherein the first one or more electrically conductive pads of the header contact the second one or more electrically conductive pads of the sensor die , and wherein the bulk of the header at the first working surface of the header contacts the dielectric layer of the third surface of the sensor die . a header having a first working surface , the first working surface composed of a first one or more electrically conductive pads and a bulk of the header ; a sensor die attached to the header , the sensor die having a second working surface and a third surface reverse of the second working surface , the sensor die including: a sensing element on the second working surface ; one or more electrically conductive doped regions proximate the sensing element ; and one or more electrically conductive pins extending from the third surface partially through the sensor die into the one or more electrically conductive doped regions , wherein the third surface of the sensor die is composed of a second one or more electrically conductive pads and a dielectric layer , wherein the second one or more electrically conductive pads is coupled to the one or more electrically conductive pins ; a sensing element on the second working surface ; one or more electrically conductive doped regions proximate the sensing element ; and one or more electrically conductive pins extending from the third surface partially through the sensor die into the one or more electrically conductive doped regions , wherein the third surface of the sensor die is composed of a second one or more electrically conductive pads and a dielectric layer , wherein the second one or more electrically conductive pads is coupled to the one or more electrically conductive pins ; wherein the first one or more electrically conductive pads of the header contact the second one or more electrically conductive pads of the sensor die , and wherein the bulk of the header at the first working surface of the header contacts the dielectric layer of the third surface of the sensor die .
A preparation method for NdFeB permanent magnet, the method including the steps of: a) Preparing main alloy flakes consisting of (Pr 2 Nd 8 ) x Fe 100-x-y-z B y M z , where M is at least one of Al, Co, Cu, Ga, Ti and Zr, and x, y and z is 28.5wt.%≤x≤31.0wt.%, 0.85wt.%≤y≤0.98wt.% and 0.5wt.%≤z≤5.0wt.%; b) Preparing auxiliary alloy flakes consisting of L u Fe 100-u-v-w B v M w , where L is one or more of the metals Pr and Nd, M is at least one of Al, Co, Cu, Ga, Ti and Zr, and u, v and w is 35.0 wt.%≤u≤45.0wt.%, 0wt.%≤v≤5.0wt.% and 2.0wt.%≤w≤10.0wt.%; c) Mixing the main alloy flakes and the auxiliary alloy flakes in a predetermined rate, then performing a hydrogen decrepitation to produce alloy pieces, and then crushing the alloy pieces to an alloy powder by jet milling; d) Preparing a powder mixture including the alloy powder and an added heavy rare earth powder consisting of at least one of Dy and Tb; and e) Pressing the powder mixture to a green compact while applying a magnetic field, and thermal treatment of the green compact in a vacuum furnace to obtain the NdFeB permanent magnet. a) Preparing main alloy flakes consisting of (Pr 2 Nd 8 ) x Fe 100-x-y-z B y M z , where M is at least one of Al, Co, Cu, Ga, Ti and Zr, and x, y and z is 28.5wt.%≤x≤31.0wt.%, 0.85wt.%≤y≤0.98wt.% and 0.5wt.%≤z≤5.0wt.%; b) Preparing auxiliary alloy flakes consisting of L u Fe 100-u-v-w B v M w , where L is one or more of the metals Pr and Nd, M is at least one of Al, Co, Cu, Ga, Ti and Zr, and u, v and w is 35.0 wt.%≤u≤45.0wt.%, 0wt.%≤v≤5.0wt.% and 2.0wt.%≤w≤10.0wt.%; c) Mixing the main alloy flakes and the auxiliary alloy flakes in a predetermined rate, then performing a hydrogen decrepitation to produce alloy pieces, and then crushing the alloy pieces to an alloy powder by jet milling; d) Preparing a powder mixture including the alloy powder and an added heavy rare earth powder consisting of at least one of Dy and Tb; and e) Pressing the powder mixture to a green compact while applying a magnetic field, and thermal treatment of the green compact in a vacuum furnace to obtain the NdFeB permanent magnet.
A laser 3D printer comprising a substantially vertical tubular compartment , which extends downwards starting from a plane (P) ; a lifting platform engaged in a sliding manner in the tubular compartment ; a feeding unit mounted above the plane (P) for feeding a powdered material onto the lifting platform ; and a laser printing head for sintering the powdered material laid on the lifting platform ; the feeding unit comprising a dispenser for feeding a given amount of powdered material onto the lifting platform ; a distributor for distributing the powdered material over the lifting platform itself, the distributor having the shape of a hopper converging towards the plane (P), and being configured for receiving the powdered material from the dispenser ; and a driving device for displacing the distributor above the tubular compartment in the plane (P) with a reciprocating rectilinear motion comprising a forward stroke, in which the distributor distributes the powdered material onto the lifting platform , and a return stroke; and being characterized in that the distributor is connected to the driving device for being displaced, with respect to the driving device , between a lowered, operating, position and a raised, resting, position.
A brachytherapy applicator device comprising: a radiation source configured to be disposed to a point of delivery , a connecting unit including a first connector coupled to a first colpostat and a second connector coupled to a second colpostat , wherein the first connector includes a first contact portion and a body portion, the first contact portion being immovably fixed to the body portion, the second connector includes a second contact portion and a third contact portion , the second contact portion being configured to contact and pivotally engage the first contact portion , the first connector further includes a fourth contact portion configured to contact the third contact portion , and the second contact portion and the third contact portion are disposed between the first contact portion and the fourth contact portion, the first contact portion being disposed closer to the point of delivery of the radiation source than the second, third, or fourth contact portions are disposed to the point of delivery of the radiation source, characterized in that the first contact portion pivots around the second contact portion and wherein the first contact portion includes a socket member, and the second contact portion includes a ball member. a radiation source configured to be disposed to a point of delivery , a connecting unit including a first connector coupled to a first colpostat and a second connector coupled to a second colpostat , wherein the first connector includes a first contact portion and a body portion, the first contact portion being immovably fixed to the body portion, the second connector includes a second contact portion and a third contact portion , the second contact portion being configured to contact and pivotally engage the first contact portion , the first connector further includes a fourth contact portion configured to contact the third contact portion , and the second contact portion and the third contact portion are disposed between the first contact portion and the fourth contact portion, the first contact portion being disposed closer to the point of delivery of the radiation source than the second, third, or fourth contact portions are disposed to the point of delivery of the radiation source, characterized in that the first contact portion pivots around the second contact portion and wherein the first contact portion includes a socket member, and the second contact portion includes a ball member.
Compounds of general formula (I): wherein: n is an integer ranging from 2 to 100; R 1 and R 2 are hydrogen or straight or branched, saturated or unsaturated C 1 -C 18 alkyl groups or aromatic groups; A is a C 1 -C 20 alkylene or C 3 -C 10 cycloalkylene group optionally containing one or more unsaturations, or an aromatic group; and B is a group of formula (II): wherein: D is an optionally unsaturated C 1 -C 6 alkylene or isoalkylene group; R 3 , R 4 , which can be the same or different, are hydrogen or C 1 -C 8 alkyl; R 5 , R 6 , which can be the same or different, are hydrogen or straight or branched C 1 -C 4 alkyl or an -OG group wherein G is hydrogen or straight or branched, saturated or unsaturated C 1 -C 10 alkyl. n is an integer ranging from 2 to 100; R 1 and R 2 are hydrogen or straight or branched, saturated or unsaturated C 1 -C 18 alkyl groups or aromatic groups; A is a C 1 -C 20 alkylene or C 3 -C 10 cycloalkylene group optionally containing one or more unsaturations, or an aromatic group; and B is a group of formula (II): wherein: D is an optionally unsaturated C 1 -C 6 alkylene or isoalkylene group; R 3 , R 4 , which can be the same or different, are hydrogen or C 1 -C 8 alkyl; R 5 , R 6 , which can be the same or different, are hydrogen or straight or branched C 1 -C 4 alkyl or an -OG group wherein G is hydrogen or straight or branched, saturated or unsaturated C 1 -C 10 alkyl. D is an optionally unsaturated C 1 -C 6 alkylene or isoalkylene group; R 3 , R 4 , which can be the same or different, are hydrogen or C 1 -C 8 alkyl; R 5 , R 6 , which can be the same or different, are hydrogen or straight or branched C 1 -C 4 alkyl or an -OG group wherein G is hydrogen or straight or branched, saturated or unsaturated C 1 -C 10 alkyl.
A liner-label, comprising: a liner ; a label ; wherein a plurality of die cut tabs are provided in the liner; wherein a die cut second label is provided in the label , the second label having a release edge; wherein a backside of the label includes an adhesive coating and is affixed to a front side of the liner with the tabs at least partially aligned to the second label ; wherein the label and the second label are configured to be removed from the liner as a unit and adhered to a package as the unit with the tabs; wherein a liner backside corresponding to the tabs removed with the unit is devoid of any adhesive; wherein areas of the backside of the label that correspond to the second label and that do not correspond to the tabs include the adhesive coating to permit the second label to retain adhesion on the package; wherein the unit comprising the label and the second label share one outer edge; wherein the outer edge corresponding to the label is a straight line; wherein the outer edge corresponding to the second label curves inward from the straight line forming an arc; and wherein the outer edge corresponding to the second label is a release edge to remove the second label from the unit when adhered to the package. a liner ; a label ; wherein a plurality of die cut tabs are provided in the liner; wherein a die cut second label is provided in the label , the second label having a release edge; wherein a backside of the label includes an adhesive coating and is affixed to a front side of the liner with the tabs at least partially aligned to the second label ; wherein the label and the second label are configured to be removed from the liner as a unit and adhered to a package as the unit with the tabs; wherein a liner backside corresponding to the tabs removed with the unit is devoid of any adhesive; wherein areas of the backside of the label that correspond to the second label and that do not correspond to the tabs include the adhesive coating to permit the second label to retain adhesion on the package; wherein the unit comprising the label and the second label share one outer edge; wherein the outer edge corresponding to the label is a straight line; wherein the outer edge corresponding to the second label curves inward from the straight line forming an arc; and wherein the outer edge corresponding to the second label is a release edge to remove the second label from the unit when adhered to the package.