mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless spectrum sharing, the method comprising: transmitting a secondary signal from a secondary transmitter (104; 208) to a secondary receiver (106; 206) using a primary wireless spectrum assigned to a primary communication system, wherein the secondary transmitter (104; 208) and the secondary receiver (106; 206) belong to a secondary communication system to which no wireless spectrum is assigned, or to which a secondary wireless spectrum is assigned, wherein the secondary wireless spectrum is distinct from the primary wireless spectrum; wherein the secondary transmitter (104; 208) transmits the secondary signal with power (1-α)P to the secondary receiver (106; 206), and wherein a total power P is split between a power αP used by the secondary transmitter or the secondary receiver to relay a primary signal using the primary wireless spectrum and the power (1-α)P used to transmit the secondary signal from the secondary transmitter (104; 208) to the secondary receiver (106; 206), with α being a power fraction parameter from the interval ; characterized in that the power fraction parameter α is computed by the secondary transmitter (104; 208) such that the transmission of the secondary signal and the relaying of the primary signal ensures a predetermined quality of reception of the primary signal by a hypothetical primary receiver located at a minimum distance from the secondary transmitter (104; 208). transmitting a secondary signal from a secondary transmitter (104; 208) to a secondary receiver (106; 206) using a primary wireless spectrum assigned to a primary communication system, wherein the secondary transmitter (104; 208) and the secondary receiver (106; 206) belong to a secondary communication system to which no wireless spectrum is assigned, or to which a secondary wireless spectrum is assigned, wherein the secondary wireless spectrum is distinct from the primary wireless spectrum; wherein the secondary transmitter (104; 208) transmits the secondary signal with power (1-α)P to the secondary receiver (106; 206), and wherein a total power P is split between a power αP used by the secondary transmitter or the secondary receiver to relay a primary signal using the primary wireless spectrum and the power (1-α)P used to transmit the secondary signal from the secondary transmitter (104; 208) to the secondary receiver (106; 206), with α being a power fraction parameter from the interval ; characterized in that the power fraction parameter α is computed by the secondary transmitter (104; 208) such that the transmission of the secondary signal and the relaying of the primary signal ensures a predetermined quality of reception of the primary signal by a hypothetical primary receiver located at a minimum distance from the secondary transmitter (104; 208).
A trigger assembly for use with a power tool having an electric motor , the trigger assembly comprising: a trigger ; a conductor coupled for movement with the trigger ; a printed circuit board having an inductive sensor thereon responsive to relative movement between the conductor and the inductive sensor caused by movement of the trigger ; the inductive sensor being a coil trace having a first end and a second end that has a different coil density than the first end ; and a spring biasing the trigger to a position in which the conductor is located in a neutral position between the first end and the second end , wherein, in response to the conductor moving away from the neutral position and towards the first end of the coil trace , the output of the inductive sensor is used to activate the motor in a first rotational direction and to accelerate a rotational speed of the motor , and wherein, in response to the conductor moving away from the neutral position and towards the second end of the coil trace , the output of the inductive sensor is used to activate the motor in an opposite, second rotational direction and to accelerate a rotational speed of the motor . a trigger ; a conductor coupled for movement with the trigger ; a printed circuit board having an inductive sensor thereon responsive to relative movement between the conductor and the inductive sensor caused by movement of the trigger ; the inductive sensor being a coil trace having a first end and a second end that has a different coil density than the first end ; and a spring biasing the trigger to a position in which the conductor is located in a neutral position between the first end and the second end , wherein, in response to the conductor moving away from the neutral position and towards the first end of the coil trace , the output of the inductive sensor is used to activate the motor in a first rotational direction and to accelerate a rotational speed of the motor , and wherein, in response to the conductor moving away from the neutral position and towards the second end of the coil trace , the output of the inductive sensor is used to activate the motor in an opposite, second rotational direction and to accelerate a rotational speed of the motor .
A pharmaceutical composition for use in treating hyperphosphatemia, the composition comprising a form of pharmaceutical grade ferric citrate and a pharmaceutically suitable carrier, wherein the amount of pharmaceutical grade ferric citrate administered per day is 6 grams per day, and wherein the pharmaceutical grade ferric citrate is administered in a tablet or capsule form, wherein the pharmaceutical grade ferric citrate is obtainable by a method comprising the steps of: (a) dissolving an appropriate amount of ferric chloride hexahydrate in water to form a ferric chloride hexahydrate solution; (b) dissolving an appropriate amount of NaOH in water to form a NaOH solution; (c) mixing the ferric chloride hexahydrate solution and NaOH solution to form a solution with Fe(OH) 3 precipitate; (d) maintaining the pH of the solution with Fe(OH) 3 precipitate above 7.0; (e) isolating the Fe(OH) 3 precipitate; (f) washing the Fe(OH) 3 precipitate three times with water; (g) suspending the Fe(OH) 3 precipitate in water; (h) adding citric acid to the Fe(OH) 3 precipitate to form a ferric-organic acid solution; (i) stirring and heating the ferric-organic acid solution at 90-100°C for 30 to 120 minutes; (j) removing solids in the ferric-organic acid solution by adding citric acid; (k) allowing the ferric-organic acid solution to cool to below 30°C; (l) maintaining the pH of the ferric-organic acid solution to between 0.8-1.5; (m) filtering the ferric-organic acid solution to obtain a liquid filtrate; (n) mixing acetone and liquid filtrate to form ferric citrate; (o) isolating ferric citrate; (p) washing ferric citrate with acetone three times; and (q) drying the ferric citrate. (a) dissolving an appropriate amount of ferric chloride hexahydrate in water to form a ferric chloride hexahydrate solution; (b) dissolving an appropriate amount of NaOH in water to form a NaOH solution; (c) mixing the ferric chloride hexahydrate solution and NaOH solution to form a solution with Fe(OH) 3 precipitate; (d) maintaining the pH of the solution with Fe(OH) 3 precipitate above 7.0; (e) isolating the Fe(OH) 3 precipitate; (f) washing the Fe(OH) 3 precipitate three times with water; (g) suspending the Fe(OH) 3 precipitate in water; (h) adding citric acid to the Fe(OH) 3 precipitate to form a ferric-organic acid solution; (i) stirring and heating the ferric-organic acid solution at 90-100°C for 30 to 120 minutes; (j) removing solids in the ferric-organic acid solution by adding citric acid; (k) allowing the ferric-organic acid solution to cool to below 30°C; (l) maintaining the pH of the ferric-organic acid solution to between 0.8-1.5; (m) filtering the ferric-organic acid solution to obtain a liquid filtrate; (n) mixing acetone and liquid filtrate to form ferric citrate; (o) isolating ferric citrate; (p) washing ferric citrate with acetone three times; and (q) drying the ferric citrate.
A method for a user equipment, UE, operating in a wireless communication system, the method comprising: generating a Medium Access Control, MAC, sub-header; generating a MAC Protocol Data Unit, PDU, including a MAC header and a MAC payload, wherein the MAC header includes the MAC sub-header and the MAC payload includes a MAC Control Element, CE, and a MAC Service Data Unit, SDU; and transmitting, to a base station, BS, the generated MAC PDU, wherein both a logical channel instance of the MAC SDU and a type of MAC CE are identified by the MAC sub-header, wherein the MAC CE is used for inband control signaling and wherein the MAC SDU includes data of a Common Control Channel, CCCH. generating a Medium Access Control, MAC, sub-header; generating a MAC Protocol Data Unit, PDU, including a MAC header and a MAC payload, wherein the MAC header includes the MAC sub-header and the MAC payload includes a MAC Control Element, CE, and a MAC Service Data Unit, SDU; and transmitting, to a base station, BS, the generated MAC PDU, wherein both a logical channel instance of the MAC SDU and a type of MAC CE are identified by the MAC sub-header, wherein the MAC CE is used for inband control signaling and wherein the MAC SDU includes data of a Common Control Channel, CCCH.
A method for mounting a shower tray , comprising the steps of: arranging a plurality of shower tray supports on the floor or on the shower tray; arranging at least one temporary mounting structure on the floor at a position within and adjacent a boundary of an area at which the shower tray is to be positioned in use, wherein the height of the temporary mounting structure is less than the height of the shower tray supports ; wherein the mounting structure comprises a bottom portion having a planar structure for resting on a floor, and an upper portion having a planar structure for supporting a shower tray , wherein the mounting structure further comprises means for adjusting the distance between the planar structure of the bottom portion and the planar structure of the upper portion , wherein the bottom portion and the upper portion are wedge shaped members , each of the wedge shaped members being provided with a top surface , the top surfaces are connectable to each other thus forming the means for adjusting the distance between the planar structure of the bottom portion and the planar structure of the upper portion , wherein each one of the upper portion and the bottom portion forms a hollow cavity configured to receive a corner of a shower tray , positioning the shower tray onto the shower tray supports and the floor, tilting the shower tray upwards such that the shower tray is standing on the at least one temporary mounting structure , adjusting the height of at least one shower tray support , and repositioning the shower tray onto the shower tray supports . arranging a plurality of shower tray supports on the floor or on the shower tray; arranging at least one temporary mounting structure on the floor at a position within and adjacent a boundary of an area at which the shower tray is to be positioned in use, wherein the height of the temporary mounting structure is less than the height of the shower tray supports ; wherein the mounting structure comprises a bottom portion having a planar structure for resting on a floor, and an upper portion having a planar structure for supporting a shower tray , wherein the mounting structure further comprises means for adjusting the distance between the planar structure of the bottom portion and the planar structure of the upper portion , wherein the bottom portion and the upper portion are wedge shaped members , each of the wedge shaped members being provided with a top surface , the top surfaces are connectable to each other thus forming the means for adjusting the distance between the planar structure of the bottom portion and the planar structure of the upper portion , wherein each one of the upper portion and the bottom portion forms a hollow cavity configured to receive a corner of a shower tray , positioning the shower tray onto the shower tray supports and the floor, tilting the shower tray upwards such that the shower tray is standing on the at least one temporary mounting structure , adjusting the height of at least one shower tray support , and repositioning the shower tray onto the shower tray supports .
A protective product comprising a cloth comprising a woven fabric structure and selected from the group consisting of arc protective garments, flame-proof protective garments, work garments, activity garments, gloves, aprons for protection, and members for protection, characterized in that a front-surface spun yarn containing an infrared absorber- and/or electrically conductive agent-containing fiber and not containing carbon is located on a front surface of the cloth, while a back-surface spun yarn containing a carbon-containing fiber is located on a back surface of the cloth, wherein the back surface of the cloth is directed to the skin side of the wearer, when worn, and the cloth has an ATPV value of 8.0 cal/cm 2 or more in Arc Resistance Test ASTM F1959-1999.
Method for creating a screen print on objects such as e.g. textiles, foils, plastics, metallic, glass and/or wooden objects, paper or cardboard, in the case of which a liquid printing medium is applied onto a print fabric and deposited as a printing medium layer on the print fabric and a force is exerted on the print fabric by means of a printing squeegee , as a result of which the print fabric is elastically deformed and the printing medium layer comes into contact with the object to be printed, wherein a printing medium chamber filled with the liquid printing medium is arranged in front of the printing squeegee , which are moved together in their respective operating position relative to the print fabric , wherein the liquid printing medium is supplied to the print fabric as a defined printing medium layer via a chamber outlet during the relative movement of the printing squeegee along the print fabric spatially in front of the printing squeegee , wherein the chamber outlet of the printing medium chamber can be closed in a controllable manner, wherein the printing squeegee arranged spatially behind the printing medium chamber relative to the relative movement of the printing medium chamber and the printing squeegee exerts a force on the print fabric during the relative movement of the printing squeegee and the defined printing medium layer comes into contact with the object to be printed.
A rotary electric machine, comprising a stator and a rotor, wherein the rotor comprises: a rotating shaft having a groove portion extending in an axial direction; and a rotor core which is formed of electromagnetic steel plates laminated in the axial direction of the rotating shaft and in which a shaft hole through which the rotating shaft is inserted is formed on each of the electromagnetic steel plates, the rotary core is formed by laminating first steel plates consisting of one or more electromagnetic steel plates having a first protrusion portion to be accommodated in the groove portion of the rotating shaft and second steel plates consisting of one or more electromagnetic steel plates having a second protrusion portion to be accommodated in the groove portion of the rotating shaft , characterized in that the length in the width direction of the second protrusion portion is shorter than the length in the width direction of the first protrusion portion by the length in the width direction of the first engaging portion on both sides of the first protrusion portion , the first protrusion portion of the first steel plate has a first engaging portion deformed by a side surface of the groove portion of the rotating shaft , and at least a part of the first engaging portion of the first steel plate is arranged in a space formed between the second protrusion portion of the second steel plate and a side surface of the groove portion of the rotating shaft . a rotating shaft having a groove portion extending in an axial direction; and a rotor core which is formed of electromagnetic steel plates laminated in the axial direction of the rotating shaft and in which a shaft hole through which the rotating shaft is inserted is formed on each of the electromagnetic steel plates, the rotary core is formed by laminating first steel plates consisting of one or more electromagnetic steel plates having a first protrusion portion to be accommodated in the groove portion of the rotating shaft and second steel plates consisting of one or more electromagnetic steel plates having a second protrusion portion to be accommodated in the groove portion of the rotating shaft , characterized in that the length in the width direction of the second protrusion portion is shorter than the length in the width direction of the first protrusion portion by the length in the width direction of the first engaging portion on both sides of the first protrusion portion , the first protrusion portion of the first steel plate has a first engaging portion deformed by a side surface of the groove portion of the rotating shaft , and at least a part of the first engaging portion of the first steel plate is arranged in a space formed between the second protrusion portion of the second steel plate and a side surface of the groove portion of the rotating shaft .
A decorative sheet comprising a laminate sequentially including a base material sheet , a transparent resin layer , and a surface-protecting layer in the thickness direction, wherein the decorative sheet has an embossed projection and depression pattern on the surface-protecting layer side, projections (C) of the embossed projection and depression pattern are rising portions successively connected to depressions (D), and are projected from a reference plane, the reference plane being a portion of the surface of the surface-protecting layer without the embossed projection and depression pattern, and the surface of the surface-protecting layer has a maximum profile peak height Rp specified in JIS B0601 of 30 μm or more. the decorative sheet has an embossed projection and depression pattern on the surface-protecting layer side, projections (C) of the embossed projection and depression pattern are rising portions successively connected to depressions (D), and are projected from a reference plane, the reference plane being a portion of the surface of the surface-protecting layer without the embossed projection and depression pattern, and the surface of the surface-protecting layer has a maximum profile peak height Rp specified in JIS B0601 of 30 μm or more.
Motorcycles tyre , having an equatorial plane (X-X) and a tread band comprising a plurality of grooves that form a tread pattern including a module (T) replicated along a circumferential direction of the tyre and having a predetermined circumferential length (C1), the module (T) comprising: - a pair of circumferential grooves arranged on opposite sides with respect to the equatorial plane (X-X), said circumferential grooves extending along said circumferential direction for at least part of said predetermined circumferential length (C1) and defining between them a central annular portion (A) of tread band having a void to solid ratio substantially equal to zero and a predetermined axial width (A1); - a pair of first lateral annular portions (B) arranged on opposite sides with respect to the equatorial plane (X-X) in an axially outer position with respect to said pair of circumferential grooves and each having a void to solid ratio substantially equal to zero; - a plurality of pairs of transversal grooves arranged on opposite sides with respect to the equatorial plane (X-X), in an axially outer position with respect to said pair of first lateral annular portions (B); wherein said tyre has a curvature ratio lower than about 0.4; characterised in that said plurality of pairs of transversal grooves comprises four pairs of transversal grooves arranged in succession along said circumferential direction, wherein each of said four pairs of transversal grooves has respective first ends proximal to said equatorial plane (X-X) and opposite second ends distal from said equatorial plane (X-X), wherein the first ends of the grooves of three consecutive pairs of transversal grooves of said four pairs of transversal grooves have substantially the same axial distance (d) from said equatorial plane (X-X), and wherein the first end of the remaining pair of transversal grooves of said four pairs of transversal grooves is arranged at an axial distance from the equatorial plane (X-X) greater than the axial distance (d) of the first ends of said three consecutive transversal grooves . - a pair of circumferential grooves arranged on opposite sides with respect to the equatorial plane (X-X), said circumferential grooves extending along said circumferential direction for at least part of said predetermined circumferential length (C1) and defining between them a central annular portion (A) of tread band having a void to solid ratio substantially equal to zero and a predetermined axial width (A1); - a pair of first lateral annular portions (B) arranged on opposite sides with respect to the equatorial plane (X-X) in an axially outer position with respect to said pair of circumferential grooves and each having a void to solid ratio substantially equal to zero; - a plurality of pairs of transversal grooves arranged on opposite sides with respect to the equatorial plane (X-X), in an axially outer position with respect to said pair of first lateral annular portions (B);
A process for improved naphtha cracking and reforming, comprising: passing a naphtha feedstream to a naphtha splitter to generate a light naphtha and a heavy naphtha; passing the light naphtha to a separation unit to generate an extract stream comprising normal hydrocarbons, and a raffinate stream comprising non-normal hydrocarbons; passing the heavy naphtha to a reforming unit to generate a reformed effluent comprising aromatics, naphthenes and paraffins; passing the extract stream to a cracking unit to generate a light olefin stream; passing the raffinate stream to a second fractionation column to generate a second overhead stream comprising iC5 and iC6, and a second bottoms stream comprising methyl cyclopentane, cyclohexane and benzene; passing the overhead stream to the reforming unit to isomerize the isoparaffins to normal paraffins; passing the reformed effluent to an aromatics extraction unit to generate an aromatics stream and an extraction raffinate stream comprising C5 and C6 paraffins; passing the extraction raffinate stream to the cracking unit; and passing the aromatics stream to an aromatics complex. passing a naphtha feedstream to a naphtha splitter to generate a light naphtha and a heavy naphtha; passing the light naphtha to a separation unit to generate an extract stream comprising normal hydrocarbons, and a raffinate stream comprising non-normal hydrocarbons; passing the heavy naphtha to a reforming unit to generate a reformed effluent comprising aromatics, naphthenes and paraffins; passing the extract stream to a cracking unit to generate a light olefin stream; passing the raffinate stream to a second fractionation column to generate a second overhead stream comprising iC5 and iC6, and a second bottoms stream comprising methyl cyclopentane, cyclohexane and benzene; passing the overhead stream to the reforming unit to isomerize the isoparaffins to normal paraffins; passing the reformed effluent to an aromatics extraction unit to generate an aromatics stream and an extraction raffinate stream comprising C5 and C6 paraffins; passing the extraction raffinate stream to the cracking unit; and passing the aromatics stream to an aromatics complex.