mhurhangee/ep-ind-claims huggingface dataset:
A tool for arranging voice coil leadouts in a microspeaker, comprising: a mandrel having a top surface on which a bobbin and voice coil of the microspeaker can be positioned during formation of helicoidal leadout regions of a microspeaker voice coil; a bobbin alignment feature at a top region of, and adjacent the top surface of, the mandrel, the bobbin alignment feature constructed and arranged for positioning at an inner diameter of the bobbin; a sleeve alignment element at a bottom region of the bobbin alignment feature, the sleeve alignment element having a first surface on which a sleeve of the microspeaker can be positioned during the formation of the voice coil helicoidal leadout regions; and a gluing ring positioned about the mandrel and on a second surface of the sleeve alignment element, the gluing ring constructed and arranged for providing guide paths for distal ends of the helicoidal leadout regions extending in a direction from the mandrel to the sleeve alignment element. a mandrel having a top surface on which a bobbin and voice coil of the microspeaker can be positioned during formation of helicoidal leadout regions of a microspeaker voice coil; a bobbin alignment feature at a top region of, and adjacent the top surface of, the mandrel, the bobbin alignment feature constructed and arranged for positioning at an inner diameter of the bobbin; a sleeve alignment element at a bottom region of the bobbin alignment feature, the sleeve alignment element having a first surface on which a sleeve of the microspeaker can be positioned during the formation of the voice coil helicoidal leadout regions; and a gluing ring positioned about the mandrel and on a second surface of the sleeve alignment element, the gluing ring constructed and arranged for providing guide paths for distal ends of the helicoidal leadout regions extending in a direction from the mandrel to the sleeve alignment element.
A drying machine comprising: a drum for containing clothes to be dried; an air circulating unit for circulating air through the drum; a motor for driving a drying fan for air circulation; a condenser (81; 300) for condensing moisture in circulating air introduced from the drum, the condenser being one of a refrigerant heat exchanger for exchanging heat with the circulating air through a refrigerating cycle and an air heat exchanger for exchanging heat between the circulating air and external air; a heating unit for heating the circulating air introduced from the condenser; and a base, which is disposed under the drum to support the drum, and which constitutes a lower part of the drying machine, wherein the air circulating unit includes a condensation duct (500; 200), characterized in that the condensation duct (500; 200) is adapted to be changed in structure so as to accommodate said types of condensers in accordance with a manner in which the respective condensers perform heat exchange, wherein the base includes a condensation duct mount having a consistent shape and size capable of accommodating any said types of condensation ducts (500; 200) regardless of a shape of the condensation duct (500; 200). a drum for containing clothes to be dried; an air circulating unit for circulating air through the drum; a motor for driving a drying fan for air circulation; a condenser (81; 300) for condensing moisture in circulating air introduced from the drum, the condenser being one of a refrigerant heat exchanger for exchanging heat with the circulating air through a refrigerating cycle and an air heat exchanger for exchanging heat between the circulating air and external air; a heating unit for heating the circulating air introduced from the condenser; and a base, which is disposed under the drum to support the drum, and which constitutes a lower part of the drying machine, wherein the air circulating unit includes a condensation duct (500; 200), characterized in that the condensation duct (500; 200) is adapted to be changed in structure so as to accommodate said types of condensers in accordance with a manner in which the respective condensers perform heat exchange, wherein the base includes a condensation duct mount having a consistent shape and size capable of accommodating any said types of condensation ducts (500; 200) regardless of a shape of the condensation duct (500; 200).
A method for transmitting control information, for a control information transmitting terminal, the control information comprising a first part of control information and a second part of control information; the method comprising: transmitting the first part of control information to a control information receiving terminal through a first physical layer channel occupying a first time-frequency resource; transmitting first indication information to the control information receiving terminal, the first indication information being configured to indicate a size of a second time-frequency resource and the second time-frequency resource being configured to be occupied when transmitting the second part of control information; and transmitting the second part of control information to the control information receiving terminal through a second physical layer channel occupying the second time-frequency resource, wherein the method further comprises: calculating the size of the second time-frequency resource based on a first parameter; and determining the first indication information based on a value of the first parameter, wherein the second physical layer channel is a physical layer channel for data transmission; and the first parameter includes a parameter for adjusting a ratio of coding efficiencies of the second part of control information and data information. transmitting the first part of control information to a control information receiving terminal through a first physical layer channel occupying a first time-frequency resource; transmitting first indication information to the control information receiving terminal, the first indication information being configured to indicate a size of a second time-frequency resource and the second time-frequency resource being configured to be occupied when transmitting the second part of control information; and transmitting the second part of control information to the control information receiving terminal through a second physical layer channel occupying the second time-frequency resource, wherein the method further comprises: calculating the size of the second time-frequency resource based on a first parameter; and determining the first indication information based on a value of the first parameter, wherein the second physical layer channel is a physical layer channel for data transmission; and the first parameter includes a parameter for adjusting a ratio of coding efficiencies of the second part of control information and data information. calculating the size of the second time-frequency resource based on a first parameter; and determining the first indication information based on a value of the first parameter, wherein the second physical layer channel is a physical layer channel for data transmission; and the first parameter includes a parameter for adjusting a ratio of coding efficiencies of the second part of control information and data information.
A method of preparing an area of a ground surface to be milled by a milling machine, the method comprising: a) prior to performing any milling operation on the area of the ground surface, traversing the area with a survey vehicle separate from the milling machine, the survey vehicle including a sensor, a marking sprayer and a controller; b) detecting the presence of a buried obstacle with the sensor and generating a sensor output signal indicative of the presence of the obstacle; c) receiving the sensor output signal in the controller and generating a sprayer actuation signal in response to the sensor output signal; and d) actuating the marking sprayer in response to the sprayer actuation signal and spraying the ground surface above the obstacle with a visible marking emitted from the sprayer; characterized in that in step (d) the visible marking includes a visible indication of a depth of the obstacle under the ground surface. a) prior to performing any milling operation on the area of the ground surface, traversing the area with a survey vehicle separate from the milling machine, the survey vehicle including a sensor, a marking sprayer and a controller; b) detecting the presence of a buried obstacle with the sensor and generating a sensor output signal indicative of the presence of the obstacle; c) receiving the sensor output signal in the controller and generating a sprayer actuation signal in response to the sensor output signal; and d) actuating the marking sprayer in response to the sprayer actuation signal and spraying the ground surface above the obstacle with a visible marking emitted from the sprayer;
A process for synthesizing a manganese doped phosphor, the process comprising: milling particles of a phosphor precursor of formula I; and A x [MF y]:Mn 4+ contacting the milled particles with a fluorine-containing oxidizing agent at an elevated temperature, wherein, A is Li, Na, K, Rb, Cs, or a combination thereof; M is Si, Ge, Sn, Ti, Zr, Al, Ga, In, Sc, Hf, Y, La, Nb, Ta, Bi, Gd, or a combination thereof; x is the absolute value of the charge of the [MF y] ion; y is 5, 6 or 7. milling particles of a phosphor precursor of formula I; and A x [MF y]:Mn 4+ contacting the milled particles with a fluorine-containing oxidizing agent at an elevated temperature, wherein, A is Li, Na, K, Rb, Cs, or a combination thereof; M is Si, Ge, Sn, Ti, Zr, Al, Ga, In, Sc, Hf, Y, La, Nb, Ta, Bi, Gd, or a combination thereof; x is the absolute value of the charge of the [MF y] ion; y is 5, 6 or 7. A is Li, Na, K, Rb, Cs, or a combination thereof; M is Si, Ge, Sn, Ti, Zr, Al, Ga, In, Sc, Hf, Y, La, Nb, Ta, Bi, Gd, or a combination thereof; x is the absolute value of the charge of the [MF y] ion; y is 5, 6 or 7.
A process comprising the step of contacting under carbonylation conditions an alkene gas, a carbon monoxide gas, an alkanol gas and a solid sulfide-based metal catalyst comprising a Group VIII metal being at least one of iron, cobalt, rhodium and nickel to produce an alkyl alkanoate.
A battery charging control method, wherein the method comprises: obtaining voltages of N cell units in an M th sampling period, wherein the M th sampling period comprises K sampling moments, the N cell units form a battery, and N, M, and K are positive integers; calculating a voltage of the battery at each sampling moment among the K sampling moments based on the voltages; and characterized in that the method further comprises: stopping charging the battery when both a first condition and a second condition are satisfied, wherein, the first condition comprises: the voltage of the battery increases monotonically in the M th sampling period; and the second condition comprises: a trend of a curve fitting of the voltage of at least one cell unit among the N cell units in the M th sampling period is non-rising. obtaining voltages of N cell units in an M th sampling period, wherein the M th sampling period comprises K sampling moments, the N cell units form a battery, and N, M, and K are positive integers; calculating a voltage of the battery at each sampling moment among the K sampling moments based on the voltages; and characterized in that the method further comprises: stopping charging the battery when both a first condition and a second condition are satisfied, wherein, the first condition comprises: the voltage of the battery increases monotonically in the M th sampling period; and the second condition comprises: a trend of a curve fitting of the voltage of at least one cell unit among the N cell units in the M th sampling period is non-rising. stopping charging the battery when both a first condition and a second condition are satisfied, wherein, the first condition comprises: the voltage of the battery increases monotonically in the M th sampling period; and the second condition comprises: a trend of a curve fitting of the voltage of at least one cell unit among the N cell units in the M th sampling period is non-rising.
A method comprising: receiving information for configuring multiple forward link, FL, carriers and at least one reverse link, RL, carrier, wherein the multiple FL carriers and the at least one RL carrier are arranged in at least one group, each group including at least one FL carrier and a single RL carrier, and at least one group including at least two FL carriers, wherein one FL carrier and one RL carrier among the configured carriers are designated as a FL primary carrier and a RL primary carrier, respectively, wherein the FL primary carrier serves the purpose of one or more of originating a call, receiving signaling during call setup, performing Layer 3 signaling handoff procedure, selecting a serving base station for FL transmission based on the primary FL carrier, sending power control for a Reverse Pilot Channel, R-PICH, sending rate control for a Reverse Packet Data Channel, R-PDCH, sending acknowledgements on a Forward Acknowledgement Channel, F-ACKCH, for reverse link transmissions, sending MAC control messages on a Forward Packet Data Control Channel, F-PDCCH, to a terminal, and sending forward grant messages on a Forward Grant Channel, F-GCH, to a terminal; and after having received the information: receiving data transmission comprising packets on one or more of the previously configured multiple FL carriers in the group; receiving designated FL signaling on the primary FL carrier; and sending designated RL signaling on the primary RL carrier. receiving data transmission comprising packets on one or more of the previously configured multiple FL carriers in the group; receiving designated FL signaling on the primary FL carrier; and sending designated RL signaling on the primary RL carrier.
A fluidized bed reactor, comprising a stationary fluidized bed of bulk materials flowing in a horizontal direction as well as at least one wind box and a discrete or continuous nozzle floor above, optionally comprising a plurality of nozzles, to produce and stabilize said fluidized bed, characterized in that a cover plate is provided above said fluidized bed above a section of its flow path through the reactor, said cover plate limiting the rising fluidizing gas flow and comprising at least one nozzle and, at each of its ends, one underflow weir extending transversely across the fluidized bed's flow direction, wherein said nozzles provided in the nozzle floor and/or the nozzles provided in the cover plate have different inner diameters and/or are present in different numbers per unit area in the flow direction of the fluidized bed.
Circular surgical tissue fusion instrument with two gripping structures (2, 3) which are movable relative to each other and which are designed to bring together biological tissue sections (G 1, G 2) that are to be connected to each other, with heat-generating means (8, 9) which are assigned to the gripping structures (2, 3) and, during tissue fusion, cause heat to be introduced in the area of a connection site of the biological tissue sections (G 1, G 2), and with a support structure (7, 7a to 7g) which is assigned to the gripping structures and, during tissue fusion, is operatively connected to the tissue sections (G 1, G 2), wherein the support structure (7, 7a to 7g) has at least one additional physical functional structure for aiding or promoting the tissue fusion, wherein the gripping structures (2, 3) are in the form of a base part and an anvil part, wherein a head area protruding from a grip area of the tissue fusion instrument via an elongate neck has the base part and the anvil part, the anvil part is mounted longitudinally displaceably in the base part by means of an anvil shaft coaxial to a central longitudinal axis of the neck of the head area, wherein the anvil part can travel relative to the base part along the central longitudinal axis between an open position and a closed position, and the base part and the anvil part have end faces which are directed toward each other, which form contact faces by which tissue sections (G 1, G 2) to be connected to each other are grasped and brought together, wherein the two end faces of the base part and the anvil part are provided with electrode arrangements (8, 9) which, as heat-generating means, are acted upon electrically, wherein the support structure has apertures (D 2) which are designed as perforations, wherein the apertures (D 2) designed as perforations extend about a circumference of the support structure, are distributed uniformly in the shape of a circle about the circumference of the support structure and are arranged flush with the electrode arrangements (8, 9), wherein the support structure is designed as an annular disk, has a receiving eye for mounting the support structure on the anvil shaft of the anvil part, characterized in that the support structure is additionally provided with an edge web, is formed integrally on the outer periphery of the annular disk-shaped support structure and protrudes axially, with respect to a radial plane of the support structure, on opposite sides relative to a disk surface of the support structure.
A heat exchanger, comprising: a stack formed by stacking a plurality of tubes through which gas flow; a tubular inner tank in which the stack is housed; and a tubular outer tank that is mounted on the outside of the inner tank so as to define an inner space between the outer tank and an outer peripheral surface of the inner tank, outer peripheries of both end portions of the stack are joined to an inner peripheral surface of the inner tank, an introduction hole for introducing a cooling medium is formed in the outer tank, a discharge hole for discharging the cooling medium is formed at a location between the both end portions of the tubes in the inner tank, the heat exchanger being characterized in that each of both ends portions of the tubes has a thickness greater than each of the middle portions of the tubes, in that the both end portions of the tubes adjacent to each other in the stack are joined together so as to form a clearance between the middle portions of tubes adjacent to each other in the stack and, in that for each clearance, two communication holes are respectively formed in side surfaces of the inner tank for allowing the clearance and the inner space to communicate with each other, the two communication holes facing each other with the clearance arranged therebetween. a stack formed by stacking a plurality of tubes through which gas flow; a tubular inner tank in which the stack is housed; and a tubular outer tank that is mounted on the outside of the inner tank so as to define an inner space between the outer tank and an outer peripheral surface of the inner tank, outer peripheries of both end portions of the stack are joined to an inner peripheral surface of the inner tank, an introduction hole for introducing a cooling medium is formed in the outer tank, a discharge hole for discharging the cooling medium is formed at a location between the both end portions of the tubes in the inner tank, the heat exchanger being characterized in that each of both ends portions of the tubes has a thickness greater than each of the middle portions of the tubes, in that the both end portions of the tubes adjacent to each other in the stack are joined together so as to form a clearance between the middle portions of tubes adjacent to each other in the stack and, in that for each clearance, two communication holes are respectively formed in side surfaces of the inner tank for allowing the clearance and the inner space to communicate with each other, the two communication holes facing each other with the clearance arranged therebetween.
A polymer comprising a (per)fluoropolyether chain (R f) having two ends, wherein one or both ends comprise(s) at least one zwitterionic group (Z w), wherein said (per)fluoropolyether chain (R f) is selected from chains of formula: (R f -IIA) -(CF 2 CF 2 O) a1 (CF 2 O) a2 - wherein: - a1 and a2 are independently integers ≥ 0 such that the number average molecular weight is between 400 and 10,000, preferably between 400 and 5,000; with the ratio a1/a2 being preferably comprised between 0.1 and 10; (R f -IIB) -(CF 2 CF 2 O) b1 (CF 2 O) b2 (CF(CF 3)O) b3 (CF 2 CF(CF 3)O) b4 - wherein: b1, b2, b3, b4, are independently integers ≥ 0 such that the number average molecular weight is between 400 and 10,000, preferably between 400 and 5,000; preferably b1 is 0, b2, b3, b4 are > 0, with the ratio b4/(b2+b3) being ≥1; (R f -IIC) -(CF 2 CF 2 O) c1 (CF 2 O) c2 (CF 2 (CF 2) cw CF 2 O) c3 - wherein: cw = 1 or 2; c1, c2, and c3 are independently integers ≥ 0 chosen so that the number average molecular weight is between 400 and 10,000, preferably between 400 and 5,000; preferably c1, c2 and c3 are all > 0, with the ratio c3/(c1+c2) being generally lower than 0.2; (R f -IID) -(CF 2 CF(CF 3)O) d - wherein: d is an integer >0 such that the number average molecular weight is between 400 and 10,000, preferably between 400 and 5,000; (R f -IIE) -(CF 2 CF 2 C(Hal*) 2 O) e1 -(CF 2 CF 2 CH 2 O) e2 -(CF 2 CF 2 CH(Hal*)O) e3 - wherein: - Hal*, equal or different at each occurrence, is a halogen selected from fluorine and chlorine atoms, preferably a fluorine atom; - e1, e2, and e3, equal to or different from each other, are independently integers ≥ 0 such that the (e1+e2+e3) sum is comprised between 2 and 300; and wherein said at least one zwitterionic group (Z w) is selected from formulae (Z w -1), (Z w -2a) and (Z w -2b) here below: (Z w -1) -Cat 1 + -S 1zw -An - wherein: - Cat 1 + represents NR'R", wherein R' and R" are both methyl; - S 1zw is a straight alkylene chain comprising 1 to 10 carbon atoms; - An - represents a carboxylate anion; cw = 1 or 2; c1, c2, and c3 are independently integers ≥ 0 chosen so that the number average molecular weight is between 400 and 10,000, preferably between 400 and 5,000; preferably c1, c2 and c3 are all > 0, with the ratio c3/(c1+c2) being generally lower than 0.2; - Hal*, equal or different at each occurrence, is a halogen selected from fluorine and chlorine atoms, preferably a fluorine atom; - e1, e2, and e3, equal to or different from each other, are independently integers ≥ 0 such that the (e1+e2+e3) sum is comprised between 2 and 300; - Cat 1 + represents NR'R", wherein R' and R" are both methyl; - S 1zw is a straight alkylene chain comprising 1 to 10 carbon atoms; - An - represents a carboxylate anion;
A respiratory nasal filter comprising: an outer ring having concentric outer periphery and inner periphery sized to the periphery of a user's nasal orifice; a filter layer having an outer periphery larger than the inner periphery of the outer ring, but smaller than the outer periphery of the outer ring; an adhesive applied to said outer ring for bonding the filter layer concentrically to the outer ring and for bonding the outer ring to the columella, a nasal sill, an alar sidewall and the facet of the user's nose; an additional adhesive being positioned at opposing locations of the overlapping of the filter layer and the outer ring, to provide adequate adherence to the peripheral edge of the person's nostril. an outer ring having concentric outer periphery and inner periphery sized to the periphery of a user's nasal orifice; a filter layer having an outer periphery larger than the inner periphery of the outer ring, but smaller than the outer periphery of the outer ring; an adhesive applied to said outer ring for bonding the filter layer concentrically to the outer ring and for bonding the outer ring to the columella, a nasal sill, an alar sidewall and the facet of the user's nose; an additional adhesive being positioned at opposing locations of the overlapping of the filter layer and the outer ring, to provide adequate adherence to the peripheral edge of the person's nostril.