mhurhangee/ep-ind-claims huggingface dataset:
A magnetic flow transmitter (20,40,90), comprising: a driver (44,94) adapted to provide a driver output signal at a selected fundamental frequency Fo to a coil (26,48) on a flow tube (22,42) carrying a flow of a liquid (21,50); an amplifier having an amplifier input adapted to couple to electrodes (30,32,52,54) on the flow tube, the amplifier having an amplifier output and being adapted to provide an amplifier output signal at the amplifier output; an analog-to-digital converter operably coupled to the amplifier output, the analog-to-digital converter being arranged to provide a digital output signal related to the amplifier output signal; and a digital processor (70,92) operably coupled to the analog-to-digital converter to receive the digital output signal, the digital processor being arranged to generate spectral components of the digital output signal that extend over both the fundamental frequency and a frequency of a known potential noise source; the digital processor being further arranged to provide a flow output signal as a function of at least one spectral component at or near the fundamental frequency, the digital processor being further arranged to provide a diagnostic output signal as a function of at least one spectral component at or near the frequency of the noise source wherein the driver output signal is substantially a rectangular wave with the fundamental frequency F o; wherein the digital processor is arranged to generate the spectral componants in synchronization with the driver output signal; and further comprising a synchronization line coupling the driver and the digital processor. a driver (44,94) adapted to provide a driver output signal at a selected fundamental frequency Fo to a coil (26,48) on a flow tube (22,42) carrying a flow of a liquid (21,50); an amplifier having an amplifier input adapted to couple to electrodes (30,32,52,54) on the flow tube, the amplifier having an amplifier output and being adapted to provide an amplifier output signal at the amplifier output; an analog-to-digital converter operably coupled to the amplifier output, the analog-to-digital converter being arranged to provide a digital output signal related to the amplifier output signal; and a digital processor (70,92) operably coupled to the analog-to-digital converter to receive the digital output signal, the digital processor being arranged to generate spectral components of the digital output signal that extend over both the fundamental frequency and a frequency of a known potential noise source;
Process for the coating of a plastic component comprising the following steps: - heating of a coating area (2; 2.1; 2.2) with the aid of a heating unit at least to a threshold temperature value; - applying flame to the coating area (2; 2.1; 2.2) of the plastic component with the aid of a flame-application unit for the surface-activation of the coating area, where the heating takes place before the application of the flame; - application of a moisture-curing hotmelt adhesive to the coating area (2; 2.1; 2.2) with the aid of a spray unit (7; 7.1; 7.2); characterized in that in the region of the coating area (2; 2.1; 2.2) the plastic component has at least one smooth section (2.1) and at least one shaped section (2.2), and the spray unit (7; 7.1; 7.2) applies the hotmelt adhesive by using a wide-angle spray head (7.1) in the smooth section (2.1) and by using a spin spray head (7.2) in the shaped section (2.2). - heating of a coating area (2; 2.1; 2.2) with the aid of a heating unit at least to a threshold temperature value; - applying flame to the coating area (2; 2.1; 2.2) of the plastic component with the aid of a flame-application unit for the surface-activation of the coating area, where the heating takes place before the application of the flame; - application of a moisture-curing hotmelt adhesive to the coating area (2; 2.1; 2.2) with the aid of a spray unit (7; 7.1; 7.2);
A pressure vessel for rocket motors comprising: a toroid body including an inner shell and an outer shell forming a toroid cross section, wherein the inner shell includes an inner shell upper edge and an inner shell lower edge; the outer shell includes an outer shell upper edge and an outer shell lower edge; and a mating lip extends from one of the inner shell upper edge and outer shell upper edge, and a mating lip extends from one of the inner shell lower edge and outer shell lower edge; and the mating lip of one of the inner shell upper edge and outer shell upper edge is engaged with the other of the inner shell upper edge and the outer shell upper edge, and the mating lip of one of the inner shell lower edge and outer shell lower edge is engaged with the other of the inner shell lower edge and the outer shell lower edge, to form the toroid body; the toroid body includes a toroid outer perimeter, and the outer shell extends along the toroid outer perimeter; a planar exterior face extends along at least a portion of the outer shell and the toroid outer perimeter; and a support belt circumscribes the toroid outer perimeter and is coupled along the planar exterior face. a toroid body including an inner shell and an outer shell forming a toroid cross section, wherein the inner shell includes an inner shell upper edge and an inner shell lower edge; the outer shell includes an outer shell upper edge and an outer shell lower edge; and a mating lip extends from one of the inner shell upper edge and outer shell upper edge, and a mating lip extends from one of the inner shell lower edge and outer shell lower edge; and the mating lip of one of the inner shell upper edge and outer shell upper edge is engaged with the other of the inner shell upper edge and the outer shell upper edge, and the mating lip of one of the inner shell lower edge and outer shell lower edge is engaged with the other of the inner shell lower edge and the outer shell lower edge, to form the toroid body; the mating lip of one of the inner shell upper edge and outer shell upper edge is engaged with the other of the inner shell upper edge and the outer shell upper edge, and the mating lip of one of the inner shell lower edge and outer shell lower edge is engaged with the other of the inner shell lower edge and the outer shell lower edge, to form the toroid body; the toroid body includes a toroid outer perimeter, and the outer shell extends along the toroid outer perimeter; a planar exterior face extends along at least a portion of the outer shell and the toroid outer perimeter; and a support belt circumscribes the toroid outer perimeter and is coupled along the planar exterior face.
A piston seat apparatus for a differential-stroke cycle combustion engine, the combustion engine including one or more two-part pistons, each two-part piston having a first piston part and a second piston part operated by a piston stem which is slidably coupled to the first piston part, first pinter part comprising: a piston seat cover operatively associated with the first piston part, the piston seat cover being adapted for abutting engagement with the second piston part, wherein, upon abutting engagement, the piston seat cover is adapted to move relative to the first piston part thereby at least partially absorbing impact forces applied between the first piston part and the second piston part; a piston seat cup coupled to the first piston part, wherein the piston seat cover is adapted to sealably slidingly engage the piston seat cup, thereby to define a sealed piston seat cavity; a fluid ingress aperture in alignment with a cooperating piston rod passage and piston pin inlet for a portion of a combustion cycle of the engine, thereby allowing fluid to enter the piston seat cavity; and a fluid egress aperture in alignment with a cooperating piston pin passage and piston rod outlet for a portion of the combustion cycle of the engine, thereby allowing fluid to exit the piston seat cavity. a piston seat cover operatively associated with the first piston part, the piston seat cover being adapted for abutting engagement with the second piston part, wherein, upon abutting engagement, the piston seat cover is adapted to move relative to the first piston part thereby at least partially absorbing impact forces applied between the first piston part and the second piston part; a piston seat cup coupled to the first piston part, wherein the piston seat cover is adapted to sealably slidingly engage the piston seat cup, thereby to define a sealed piston seat cavity; a fluid ingress aperture in alignment with a cooperating piston rod passage and piston pin inlet for a portion of a combustion cycle of the engine, thereby allowing fluid to enter the piston seat cavity; and a fluid egress aperture in alignment with a cooperating piston pin passage and piston rod outlet for a portion of the combustion cycle of the engine, thereby allowing fluid to exit the piston seat cavity.
A composition comprising a lipophilic derivative of a hydrophilic drug and an amphiphile compound for use in the treatment of a central nervous system disorder wherein the treatment comprises oral administration to the human or animal body, wherein the hydrophilic drug is a peptide and/or a neuroactive agent; wherein the amphiphile compound is an amphiphilic carbohydrate compound; wherein the lipophilic derivative of the hydrophilic drug comprises a hydrophilic drug and a cleavable lipophilic linker, wherein the lipophilic linker comprises a substituted or unsubstituted hydrocarbon group comprising at least 4 carbon atoms and comprises a group selected from a C 4-30 alkyl group, a C 4-30 alkenyl group, a C 4-30 alkynyl group, a C 5-20 aryl group, a multicycle hydrophobic group with more than one C 4- C 8 ring structure such as a sterol (e.g. cholesterol), a multicyclic hydrophobic group with more than one C 4 -C 8 heteroatom ring structure, a polyoxa C 1 -C 4 alkylene group such as polyoxa butylene polymer, or a hydrophobic polymeric substituent such as a poly (lactic acid) group, a poly(lactide-co-glycolide) group or a poly(glycolic acid) group; or wherein the linker comprises general formula -C(=O)R 1 wherein R 1 is C 4-20 alkyl which may be optionally substituted. wherein the hydrophilic drug is a peptide and/or a neuroactive agent; wherein the amphiphile compound is an amphiphilic carbohydrate compound; wherein the lipophilic derivative of the hydrophilic drug comprises a hydrophilic drug and a cleavable lipophilic linker, wherein the lipophilic linker comprises a substituted or unsubstituted hydrocarbon group comprising at least 4 carbon atoms and comprises a group selected from a C 4-30 alkyl group, a C 4-30 alkenyl group, a C 4-30 alkynyl group, a C 5-20 aryl group, a multicycle hydrophobic group with more than one C 4- C 8 ring structure such as a sterol (e.g. cholesterol), a multicyclic hydrophobic group with more than one C 4 -C 8 heteroatom ring structure, a polyoxa C 1 -C 4 alkylene group such as polyoxa butylene polymer, or a hydrophobic polymeric substituent such as a poly (lactic acid) group, a poly(lactide-co-glycolide) group or a poly(glycolic acid) group; or wherein the linker comprises general formula -C(=O)R 1 wherein R 1 is C 4-20 alkyl which may be optionally substituted.
A piezoelectric inkjet die stack, comprising: a circuit die stacked on a substrate die; a piezoelectric actuator die stacked on the circuit die; a cap die stacked on the piezoelectric actuator die; wherein each die in succession from the circuit die to the cap die is narrower than a previous die; a first pressure chamber and a second pressure chamber in the piezoelectric actuator die; a first entrance manifold; a second entrance manifold; an exit manifold; and wherein each pressure chamber includes an inlet port and an outlet port located in a floor of the pressure chamber, the floor of the pressure chamber formed by a surface of the circuit die, and the inlet and outlet ports (214, 216) piercing the circuit die; wherein the first pressure chamber is in fluid communication with the first entrance manifold via its inlet port, and the second pressure chamber is in fluid communication with the second entrance manifold via its inlet port; and wherein the first and second pressure chambers are in fluid communication with the exit manifold via their outlet ports. a circuit die stacked on a substrate die; a piezoelectric actuator die stacked on the circuit die; a cap die stacked on the piezoelectric actuator die; wherein each die in succession from the circuit die to the cap die is narrower than a previous die; a first pressure chamber and a second pressure chamber in the piezoelectric actuator die; a first entrance manifold; a second entrance manifold; an exit manifold; and wherein each pressure chamber includes an inlet port and an outlet port located in a floor of the pressure chamber, the floor of the pressure chamber formed by a surface of the circuit die, and the inlet and outlet ports (214, 216) piercing the circuit die; wherein the first pressure chamber is in fluid communication with the first entrance manifold via its inlet port, and the second pressure chamber is in fluid communication with the second entrance manifold via its inlet port; and wherein the first and second pressure chambers are in fluid communication with the exit manifold via their outlet ports.
A method of generating a forward link frame by a base station in a communication system, the method comprising: generating a primary synchronization channel sequence; generating a plurality of secondary synchronization channel sequences; and generating the forward link frame including the primary and the secondary synchronization channel sequences; wherein the primary synchronization channel sequence and one of the plurality of secondary synchronization channel sequences are located in adjacent symbols in the forward link frame; wherein a cell identifier is specified by a combination of the primary synchronization channel sequence and a hopping code word specified by the plurality of the secondary synchronization channel sequences, and wherein the hopping code word selects a part of the cell identifiers used in the wireless communication system and the primary synchronization channel sequence specifies one cell identifier from among the part of the cell identifiers selected by the hopping code word. generating a primary synchronization channel sequence; generating a plurality of secondary synchronization channel sequences; and generating the forward link frame including the primary and the secondary synchronization channel sequences; wherein the primary synchronization channel sequence and one of the plurality of secondary synchronization channel sequences are located in adjacent symbols in the forward link frame; wherein a cell identifier is specified by a combination of the primary synchronization channel sequence and a hopping code word specified by the plurality of the secondary synchronization channel sequences, and wherein the hopping code word selects a part of the cell identifiers used in the wireless communication system and the primary synchronization channel sequence specifies one cell identifier from among the part of the cell identifiers selected by the hopping code word.
Dental imaging system, comprising: an optical detection system (105; 205; 305; 405, 406; 505; 605; 712; 806; 929; 1012a, 1012b; 1112; 1205, 1208; 1305, 1306) including a photodetector situated to receive light associated with a dentally modulated optical flux from at least one tooth (101; 201; 301; 401; 501; 601; 701; 801; 901; 1001; 1101; 1201; 1301), wherein the photodetector generates a photodetector signal based on the received light and wherein the optical detection system is configured to produce a detection signal associated with the photodetector signal; and a signal processor coupled to receive the detection signal and produce picture information associated with the at least one tooth (101; 201; 301; 401; 501; 601; 701; 801; 901; 1001; 1101; 1201; 1301) based on the detection signal and position information derived from the position of an optical interrogation beam, characterized by an interrogation optical scanner (102; 202; 302; 402; 502; 602; 702; 802; 928; 1028; 1128; 1202; 1302) configured to scan an optical interrogation beam across at least a portion of the at least one tooth (101; 201; 301; 401; 501; 601; 701; 801; 901; 1001; 1101; 1201; 1301) by moving the beam across a surface of the at least one tooth, wherein the optical interrogation beam is substantially transmissible into the at least one tooth (101; 201; 301; 401; 501; 601; 701; 801; 901; 1001; 1101; 1201; 1301) so as to produce the dentally modulated optical flux. an optical detection system (105; 205; 305; 405, 406; 505; 605; 712; 806; 929; 1012a, 1012b; 1112; 1205, 1208; 1305, 1306) including a photodetector situated to receive light associated with a dentally modulated optical flux from at least one tooth (101; 201; 301; 401; 501; 601; 701; 801; 901; 1001; 1101; 1201; 1301), wherein the photodetector generates a photodetector signal based on the received light and wherein the optical detection system is configured to produce a detection signal associated with the photodetector signal; and a signal processor coupled to receive the detection signal and produce picture information associated with the at least one tooth (101; 201; 301; 401; 501; 601; 701; 801; 901; 1001; 1101; 1201; 1301) based on the detection signal and position information derived from the position of an optical interrogation beam, characterized by an interrogation optical scanner (102; 202; 302; 402; 502; 602; 702; 802; 928; 1028; 1128; 1202; 1302) configured to scan an optical interrogation beam across at least a portion of the at least one tooth (101; 201; 301; 401; 501; 601; 701; 801; 901; 1001; 1101; 1201; 1301) by moving the beam across a surface of the at least one tooth, wherein the optical interrogation beam is substantially transmissible into the at least one tooth (101; 201; 301; 401; 501; 601; 701; 801; 901; 1001; 1101; 1201; 1301) so as to produce the dentally modulated optical flux.
A method for preparing a three dimensional structure of actin, said method comprising the steps of: a. Providing a polymerization solution comprising actin monomers, an Arp2/3 complex, a capping agent, ATP, a divalent cation and profilin wherein the molar ratio of Arp2/3 to capping agent preferably ranges from 0.1 and 4.0 and wherein the capping agent is a protein or a protein complex able to bind in vitro the barbed end of an actin filament, thereby preventing the addition or the loss of actin subunits from said end, b. Providing at least one surface having thereon at least one pattern, the said pattern being coated with a nucleating agent selected from the group consisting of members of the WASp family, members from SCAR/WAVE family, VCA domains thereof, peptides from VCA domains such as WA and pWA, functional homologs of SCAR/WAVE and WASp proteins such as ActA from Listeria and RickA from Rickettsia, and combinations thereof c. Contacting the at least one surface of step (b) with the polymerization solution of step (a) so as to induce the polymerization of actin and obtain the said three-dimensional actin structure. a. Providing a polymerization solution comprising actin monomers, an Arp2/3 complex, a capping agent, ATP, a divalent cation and profilin wherein the molar ratio of Arp2/3 to capping agent preferably ranges from 0.1 and 4.0 and wherein the capping agent is a protein or a protein complex able to bind in vitro the barbed end of an actin filament, thereby preventing the addition or the loss of actin subunits from said end, b. Providing at least one surface having thereon at least one pattern, the said pattern being coated with a nucleating agent selected from the group consisting of members of the WASp family, members from SCAR/WAVE family, VCA domains thereof, peptides from VCA domains such as WA and pWA, functional homologs of SCAR/WAVE and WASp proteins such as ActA from Listeria and RickA from Rickettsia, and combinations thereof c. Contacting the at least one surface of step (b) with the polymerization solution of step (a) so as to induce the polymerization of actin and obtain the said three-dimensional actin structure.
An Al-plated steel sheet comprising: a steel sheet; an Al plating layer which is formed on one surface or both surfaces of the steel sheet and contains at least 85 % or more of Al by mass%, 3 to 15 % silicon and optionally iron; and a surface coating layer which is laminated on the surface of the Al plating layer and contains ZnO, one or more lubricity improving compounds, and an organic binder, wherein the lubricity improving compound is a compound including one or more transition metal elements selected from Ti, Mn, Ni, Cu, and Zr, the compound is nickel sulfate, manganese sulfate, titanium fluoride, zirconium nitrate, or copper sulfate, an amount of the lubricity improving compound including the transition metal element in the surface coating layer is 1 % to 40 % with respect to a total amount of ZnO by mass ratio, and the surface coating layer contains 0.3 g/m 2 to 7 g/m 2 of ZnO in terms of Zn. a steel sheet; an Al plating layer which is formed on one surface or both surfaces of the steel sheet and contains at least 85 % or more of Al by mass%, 3 to 15 % silicon and optionally iron; and a surface coating layer which is laminated on the surface of the Al plating layer and contains ZnO, one or more lubricity improving compounds, and an organic binder, wherein the lubricity improving compound is a compound including one or more transition metal elements selected from Ti, Mn, Ni, Cu, and Zr, the compound is nickel sulfate, manganese sulfate, titanium fluoride, zirconium nitrate, or copper sulfate, an amount of the lubricity improving compound including the transition metal element in the surface coating layer is 1 % to 40 % with respect to a total amount of ZnO by mass ratio, and the surface coating layer contains 0.3 g/m 2 to 7 g/m 2 of ZnO in terms of Zn.