mhurhangee/ep-ind-claims huggingface dataset:
A fluid transfer device for transferring fluid between a supply reservoir and a fill reservoir comprising: a metering reservoir; a first flow path having a first one-way channel fluidly connected with the metering reservoir and configured to fluidly couple the supply reservoir and the metering reservoir and a second one-way channel fluidly connected with the metering reservoir and configured to fluidly couple the fill reservoir and the metering reservoir; a first check valve disposed within the first channel; a second check valve disposed within the second channel; a second flow path configured to fluidly couple the supply reservoir and the fill reservoir, wherein the device comprises a manifold forming at least part of the first channel, the first channel comprising a first cannula extending from the manifold, the manifold forming at least part of the second channel, the second channel comprising a second cannula extending from the manifold; the second flow path extending through the manifold and comprising a third cannula having a first end proximate a distal end of the first cannula and a second end proximate a distal end of the second cannula; characterized in that it is configured such, that expanding the metering reservoir draws fluid from the supply reservoir via the first one-way channel into the metering reservoir, compressing the metering reservoir expels the fluid from the metering reservoir into the fill reservoir via the second one-way channel and expelling the fluid into the fill reservoir displaces air in the fill reservoir into the supply reservoir via the second flow path. a metering reservoir; a first flow path having a first one-way channel fluidly connected with the metering reservoir and configured to fluidly couple the supply reservoir and the metering reservoir and a second one-way channel fluidly connected with the metering reservoir and configured to fluidly couple the fill reservoir and the metering reservoir; a first check valve disposed within the first channel; a second check valve disposed within the second channel; a second flow path configured to fluidly couple the supply reservoir and the fill reservoir, wherein the device comprises a manifold forming at least part of the first channel, the first channel comprising a first cannula extending from the manifold, the manifold forming at least part of the second channel, the second channel comprising a second cannula extending from the manifold; the second flow path extending through the manifold and comprising a third cannula having a first end proximate a distal end of the first cannula and a second end proximate a distal end of the second cannula; characterized in that it is configured such, that expanding the metering reservoir draws fluid from the supply reservoir via the first one-way channel into the metering reservoir, compressing the metering reservoir expels the fluid from the metering reservoir into the fill reservoir via the second one-way channel and expelling the fluid into the fill reservoir displaces air in the fill reservoir into the supply reservoir via the second flow path.
An activated composite web, comprising: a nonwoven layer; a formed film layer attached to the nonwoven layer, the formed film layer comprising a plurality of first apertured protuberances having a mesh count of at least 35, the first apertured protuberances having a plurality of first apertures with first cross-sectional areas, and a plurality of second apertured protuberances, the second apertured protuberances having a plurality of second apertures with second cross-sectional areas, each of the second cross-sectional areas being larger than each of the first cross-sectional areas; a plurality of first lanes aligned in a first direction and having a first width extending in a second direction substantially perpendicular to the first direction, the first apertured protuberances located in the first lanes; and a plurality of second lanes aligned in the first direction and having a second width, less than the first width, extending in the second direction, the first lanes and the second lanes alternating with each other in the second direction, the second apertured protuberances located in the second lanes, wherein each of the first apertures has a first major axis and a first minor axis with the first major axis being substantially aligned in the first direction, and wherein each of the second apertures has a second major axis and a second minor axis with the second major axis substantially aligned in the second direction. a nonwoven layer; a formed film layer attached to the nonwoven layer, the formed film layer comprising a plurality of first apertured protuberances having a mesh count of at least 35, the first apertured protuberances having a plurality of first apertures with first cross-sectional areas, and a plurality of second apertured protuberances, the second apertured protuberances having a plurality of second apertures with second cross-sectional areas, each of the second cross-sectional areas being larger than each of the first cross-sectional areas; a plurality of first lanes aligned in a first direction and having a first width extending in a second direction substantially perpendicular to the first direction, the first apertured protuberances located in the first lanes; and a plurality of second lanes aligned in the first direction and having a second width, less than the first width, extending in the second direction, the first lanes and the second lanes alternating with each other in the second direction, the second apertured protuberances located in the second lanes, wherein each of the first apertures has a first major axis and a first minor axis with the first major axis being substantially aligned in the first direction, and wherein each of the second apertures has a second major axis and a second minor axis with the second major axis substantially aligned in the second direction.
Apparatus for plasma treating a substrate comprising:- a cylindrical chamber within which one or more gases are caused to flow; a plasma generator for causing the gas(es) within the chamber to form a plasma, thereby generating at least one species, wherein the plasma generator comprises a series of induction coils surrounding the cylindrical chamber so as to provide a toroidal peripheral active region within the chamber where the majority of the energy from the plasma generator couples to said gas(es); and a guide for directing the gas flow containing the species towards the substrate; wherein the apparatus is arranged such that the width of the plasma in use is greater than that of the substrate, the difference between the widths defining an outer region of plasma, wherein the outer region comprises at least part of said peripheral active region, and wherein the guide is adapted to direct species from at least the outer region, towards substantially all of the substrate thereby increasing the processing rate. a cylindrical chamber within which one or more gases are caused to flow; a plasma generator for causing the gas(es) within the chamber to form a plasma, thereby generating at least one species, wherein the plasma generator comprises a series of induction coils surrounding the cylindrical chamber so as to provide a toroidal peripheral active region within the chamber where the majority of the energy from the plasma generator couples to said gas(es); and a guide for directing the gas flow containing the species towards the substrate;
A mobile terminal device which is adapted to communicate with a counterpart terminal device via a communication part, the counterpart terminal device having preregistered with the mobile terminal device, said mobile terminal device comprising: a server function part adapted to provide data to the counterpart terminal device, the data being selected by the user in advance of sending access information to the counterpart terminal; an email control part adapted to send access information to the counterpart terminal device via an email, the access information relating to an access method for accessing the data with the counterpart terminal device; and a server access control part that is adapted to operate the server function part to provide the data when the counterpart terminal device accesses the mobile terminal device according to the access method, with reference to a management table describing the access method and a disclosure policy; wherein the access method includes an address for specifying the mobile terminal device, a port number, and information for specifying the data which is provided to the counterpart terminal device. a server function part adapted to provide data to the counterpart terminal device, the data being selected by the user in advance of sending access information to the counterpart terminal; an email control part adapted to send access information to the counterpart terminal device via an email, the access information relating to an access method for accessing the data with the counterpart terminal device; and a server access control part that is adapted to operate the server function part to provide the data when the counterpart terminal device accesses the mobile terminal device according to the access method, with reference to a management table describing the access method and a disclosure policy; wherein the access method includes an address for specifying the mobile terminal device, a port number, and information for specifying the data which is provided to the counterpart terminal device.
A method for determining the positions of methylated nucleotides within a nucleic acid sample, comprising: a. treating nucleic acid molecules with bisulfite; b. amplifying the nucleic acid in the presence of dUTP; c. cleaving the amplified nucleic acid of step b at uracil to produce fragments thereof; d. obtaining a mass spectrum of the resulting fragments; e. obtaining a mass spectrum of fragmented amplified untreated nucleic acid molecules; f. detecting methylated nucleotides by comparing the signals between the mass spectra; and g. deducing, from step (f), the positions of methylated nucleotides. a. treating nucleic acid molecules with bisulfite; b. amplifying the nucleic acid in the presence of dUTP; c. cleaving the amplified nucleic acid of step b at uracil to produce fragments thereof; d. obtaining a mass spectrum of the resulting fragments; e. obtaining a mass spectrum of fragmented amplified untreated nucleic acid molecules; f. detecting methylated nucleotides by comparing the signals between the mass spectra; and g. deducing, from step (f), the positions of methylated nucleotides.
A compound having the formula: wherein G is chosen from CONH 2 and CSNH 2; Y is a pharmaceutically acceptable counterion; Q is chosen from alkyl and benzyl; R 2 and R 2a are both hydrogen or taken together R 2 and R 2a are =O; R 3 is chosen from hydrogen, cyclopropyl, cyclobutyl, phenyl, vinyl, dimethylvinyl, hydroxycyclopropyl, furanyl, and tetrahydrofuranyl; R 4 is chosen from hydrogen, hydroxy, amino, C 1 -C 4 alkoxy, C 1 -C 20 alkyl and C 1 -C 20 alkyl substituted with hydroxy or carbonyl; R 19 is hydrogen or C 1 -C 6 alkyl; R 20 is chosen from hydrogen, C 1 -C 6 alkyl and hydroxy(C 1 -C 6 alkyl); R 21 is hydrogen; R 22 is chosen from hydrogen, hydroxy, and C 1 -C 4 alkoxy and -NR 13 R 14; or together, R 21 and R 22 form a carbonyl or a vinyl substituent; R 13 and R 14 are chosen independently from hydrogen, C 1 -C 6 alkyl and C 1 -C 6 acyl; and R 23 is hydrogen, methyl, or together R 19 and R 23 form a second bond. G is chosen from CONH 2 and CSNH 2; Y is a pharmaceutically acceptable counterion; Q is chosen from alkyl and benzyl; R 2 and R 2a are both hydrogen or taken together R 2 and R 2a are =O; R 3 is chosen from hydrogen, cyclopropyl, cyclobutyl, phenyl, vinyl, dimethylvinyl, hydroxycyclopropyl, furanyl, and tetrahydrofuranyl; R 4 is chosen from hydrogen, hydroxy, amino, C 1 -C 4 alkoxy, C 1 -C 20 alkyl and C 1 -C 20 alkyl substituted with hydroxy or carbonyl; R 19 is hydrogen or C 1 -C 6 alkyl; R 20 is chosen from hydrogen, C 1 -C 6 alkyl and hydroxy(C 1 -C 6 alkyl); R 21 is hydrogen; R 22 is chosen from hydrogen, hydroxy, and C 1 -C 4 alkoxy and -NR 13 R 14; or together, R 21 and R 22 form a carbonyl or a vinyl substituent; R 13 and R 14 are chosen independently from hydrogen, C 1 -C 6 alkyl and C 1 -C 6 acyl; and R 23 is hydrogen, methyl, or together R 19 and R 23 form a second bond.
A surgical jaw-type instrument, on the distal end of which a jaw-type part is arranged, which is formed with two jaw branches (14, 16), wherein at least one jaw branch is pivotably mounted, and a handle for actuating the jaw-type part is arranged on the proximal end of the jaw-type instrument, and the electrosurgical jaw-type instrument comprises a blade assembly, which can be moved reversibly in the axial direction, for cutting tissue between the jaw branches (14, 16), and a shaft formed as tube, on the distal end of which the jaw-type part is arranged and on the proximal end of which the handle is arranged, wherein the jaw-type part can be actuated by a jaw actuating element passing through the shaft, and wherein the blade assembly can be actuated by a blade actuating element passing through the shaft, and the jaw actuating element can be moved longitudinally in the direction of the shaft by the handle arranged on the proximal end of the shaft, characterised in that the blade actuating element can be moved longitudinally in the direction of the shaft by means of a counterweight lever system, wherein the counterweight lever system comprises an actuating element, a coupling element, and a counterweight lever, and wherein the blade actuating element can be moved longitudinally in the shaft direction by actuating the actuating element within the shaft.
A hair straightener for performing a grooming task on a user, the straightener being able to perform the grooming task in at least a first mode or in a second mode, which is different to the first mode and comprising at least a first and a second sensor (140, 142) for measuring user data relevant to the grooming task, a user interface (112, 220) enabling the user to enter further user related data relevant to the grooming task and a data processing unit, wherein the data processing unit generates a selection signal for selecting at least either the first or the second mode depending on the data measured by the at least first and second sensors (140, 142) and depending on the user related data entered and in that the first and second sensors (140, 142) are provided to measure temperature and/or hair wetness, wherein - the hair straightener comprises a data storage unit and in that the data processing unit generates a selection signal also depending on the data stored in the data storage unit; - the data entered via the user interface (112, 220) relates to at least one of hair length, hair density and/or hair color and - the sensors (140, 142) being provided to measure a different physical property than that of the data entered via the user interface (112, 220), wherein the data measured by the at least one sensor (140, 142) form a first data set comprising a data representing a first physical property, and wherein a second data set comprising a data representing a second physical property different from said first physical property is generated using data from the first data set in a process using data provided by the data storage unit. - the hair straightener comprises a data storage unit and in that the data processing unit generates a selection signal also depending on the data stored in the data storage unit; - the data entered via the user interface (112, 220) relates to at least one of hair length, hair density and/or hair color and - the sensors (140, 142) being provided to measure a different physical property than that of the data entered via the user interface (112, 220), wherein the data measured by the at least one sensor (140, 142) form a first data set comprising a data representing a first physical property, and wherein a second data set comprising a data representing a second physical property different from said first physical property is generated using data from the first data set in a process using data provided by the data storage unit.
A sintered Nd-Fe-B magnet consisting essentially of: rare earth element R, additive element T, iron Fe, and boron B, wherein said magnet comprises a rare-earth rich phase and a main phase of Nd 2 Fe 14 B crystalline structure, and wherein the numeric sum of maximum energy product max in MGOe and intrinsic coercivity H cj in kOe is no less than 70, i.e., max (MGOe)+H cj (kOe)≥70, wherein said magnet comprises 28 to 32 wt% rare earth element R, 0-4 wt% additive element T, 0.93-1.0 wt% boron B, with the balance of iron Fe, and impurities, wherein R comprises 18 -26 wt% Nd and Pr, 2.0 - 13.5 wt% Dy and Tb, and wherein T comprises 0.1 -0.6 wt% Al, 0-0.2 wt% Cu, 0-3 wt% Co, 0-0.2 wt% Ga, and wherein Fe and impurities are the balance, the lattice constant a of said main phase Nd 2 Fe 14 B crystalline structure ranges from 0.8760 to 8.8800 nm, and the lattice constant c of said main phase Nd 2 Fe 14 B crystalline structure ranges from 1.2000 to 1.2230 nm, the average crystalline grain size of said main phase ranges from 5.0 to 10.0 μm, wherein oxygen content of said magnet ranges from 1000 to 1500 ppm.
A method for forming a film on a substrate in a semiconductor manufacturing process, comprising: a) providing a reaction chamber, and a substrate contained within the chamber; b) providing a ruthenium based precursor, wherein the precursor comprises: 1) a mixture of methyl nonafluorobutyl ether and ethyl nonafluorobutyl ether; 2) ruthenium tetroxide dissolved in the solvent mixture; and 3) less than about 100 ppm of moisture; and c) depositing a ruthenium containing film on the substrate. a) providing a reaction chamber, and a substrate contained within the chamber; b) providing a ruthenium based precursor, wherein the precursor comprises: 1) a mixture of methyl nonafluorobutyl ether and ethyl nonafluorobutyl ether; 2) ruthenium tetroxide dissolved in the solvent mixture; and 3) less than about 100 ppm of moisture; and 1) a mixture of methyl nonafluorobutyl ether and ethyl nonafluorobutyl ether; 2) ruthenium tetroxide dissolved in the solvent mixture; and 3) less than about 100 ppm of moisture; and c) depositing a ruthenium containing film on the substrate.
A method for preparing a plurality of different synthetic nucleic acids, comprising the steps: (a) provision of a support with a surface which comprises a plurality of positions at each of which different nucleic acid fragments are present, comprising base sequences which are complementary to the nucleic acids to be prepared, (b) addition of nucleotide building blocks and of an enzyme which brings about generation of different nucleic acids from the complementary base sequences from (a), and (c) detachment of the nucleic acids generated in step (b), wherein the nucleic acid fragments from (a) are chosen so that the nucleic acids or partial sequences formed in step (b) can be joined to give nucleic acid double-stranded hybrids. (a) provision of a support with a surface which comprises a plurality of positions at each of which different nucleic acid fragments are present, comprising base sequences which are complementary to the nucleic acids to be prepared, (b) addition of nucleotide building blocks and of an enzyme which brings about generation of different nucleic acids from the complementary base sequences from (a), and (c) detachment of the nucleic acids generated in step (b), wherein the nucleic acid fragments from (a) are chosen so that the nucleic acids or partial sequences formed in step (b) can be joined to give nucleic acid double-stranded hybrids.
A modular dilation device, comprising: a first dilator, the first dilator having an elongate first dilator body and a first dilator distal end, the first dilator having a first dilator outer surface and a first dilator inner lumen, the first dilator having a first dilator side wall opening, the first dilator distal end having a first dilator open tip, the first dilator side wall opening selectively placing the first dilator outer surface in fluid communication with the first dilator inner lumen, the first dilator having a first dilator open slit, the first dilator open slit extending between the first dilator side wall opening and the first dilator open tip; a guidewire configured for selective insertion at least partially through the first dilator open tip; and a second dilator, the second dilator having an elongate second dilator body and a second dilator distal end, the second dilator having a second dilator inner lumen, the second dilator distal end having a second dilator open tip; wherein when the second dilator is operatively joined to the first dilator the second dilator open tip is adjacent to the first dilator side wall opening. a first dilator, the first dilator having an elongate first dilator body and a first dilator distal end, the first dilator having a first dilator outer surface and a first dilator inner lumen, the first dilator having a first dilator side wall opening, the first dilator distal end having a first dilator open tip, the first dilator side wall opening selectively placing the first dilator outer surface in fluid communication with the first dilator inner lumen, the first dilator having a first dilator open slit, the first dilator open slit extending between the first dilator side wall opening and the first dilator open tip; a guidewire configured for selective insertion at least partially through the first dilator open tip; and a second dilator, the second dilator having an elongate second dilator body and a second dilator distal end, the second dilator having a second dilator inner lumen, the second dilator distal end having a second dilator open tip; wherein when the second dilator is operatively joined to the first dilator the second dilator open tip is adjacent to the first dilator side wall opening.
A lithium ion battery pack comprising: (a) a plurality of battery modules, each of the plurality of battery modules comprising a case ( 51a, 51b) that houses a plurality of unit cells; and (b) a protection circuit board that controls charge and discharge of the plurality of the battery modules at once, wherein the protection circuit board is formed separately from the plurality of battery modules; wherein each of the unit cells is covered with a film covering material, and wherein a positive electrode active material of each of the unit cells is a lithium manganese composite oxide. (a) a plurality of battery modules, each of the plurality of battery modules comprising a case ( 51a, 51b) that houses a plurality of unit cells; and (b) a protection circuit board that controls charge and discharge of the plurality of the battery modules at once,