mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing a connecting element using an injection moulding method, wherein, in a first step, a fastening part with gripping or interlocking elements (21, 23) forming a component of a hook and loop fastener is manufactured at least partially from at least one plastics material and placed in an injection mould (27, 29) as an insert, at least one additional plastics material being placed in said injection mould (27, 29) in a second step using a back moulding process at a pre-definable pressure and a pre-definable temperature to form a main body in such a way that the respective other plastics material at least partially forms a combined molten mass with the at least one plastics material of the fastening part, and, after said molten mass has cooled down, the fastening part is connected in a material-uniting manner to the main body to form the connecting element as a complete one-piece component.
A pharmaceutical composition for use in preventing or treating skin infections comprising: terbinafine hydrochloride 0.1 to 2.0 parts by weight; chlorhexidine gluconate 0.1 to 4.0 parts by weight, ciclopirox olamine 0.1 to 6.0 parts by weight, malic acid 0.5 to 2.0 parts by weight; and sodium borate 0.3 to 0.5 parts by weight, based on the pharmaceutical composition, wherein the composition has a pH value in the range of 5.3 to 5.7. terbinafine hydrochloride 0.1 to 2.0 parts by weight; chlorhexidine gluconate 0.1 to 4.0 parts by weight, ciclopirox olamine 0.1 to 6.0 parts by weight, malic acid 0.5 to 2.0 parts by weight; and sodium borate 0.3 to 0.5 parts by weight, based on the pharmaceutical composition, wherein the composition has a pH value in the range of 5.3 to 5.7.
Drying and/or curing installation, in particular for drying and/or curing painted and/or bonded workpieces, having an interior which has a zone (8, 9, 10) for drying and curing workpieces, from which it is possible to remove a quantity of exhaust air, and which has a lock zone (7, 11) with an opening through which workpieces can be moved along a conveying direction through an air flow (99, 100) by means of which hot air from an interior of the lock zone (7, 11) cannot reach an outer part of the lock zone (7, 11), with a nozzle (59, 60) that is arranged at an outer end of the lock zone (7, 11) and that supplies air to the interior in order to generate the air flow (99, 100), and with a fresh air quantity control and/or exhaust air quantity control for controlling the fresh air quantity that can be introduced into the lock zone (7, 11) and/or the exhaust air quantity that can be discharged from the zone (8, 10) for drying and curing workpieces, wherein the nozzle (59, 60) serves to supply, to the interior, a gas mixture formed by means which admix, to the fresh air quantity that can be introduced in the lock zone (7, 11), prior to introduction into the lock zone (7, 11), part of the exhaust air quantity that can be discharged, characterized in that the means comprise an exhaust air line which is connected on the suction side to the zone for drying and curing, which serves for discharging exhaust air from the zone (8, 10) and which is joined, at a junction point, to a fresh air line in order to form the gas mixture, so as to further convey the gas mixture in a common line.
A method of determining a copy number variation in a nucleic acid sample, the method comprising: amplifying a region of interest of the nucleic acid sample while limiting amplification of the region of interest, wherein limiting amplification comprises one or more of: (a) limiting a total number of amplification cycles prior to a plateau of amplification of the region of interest; or (b) limiting a concentration of one or more of deoxyribonucleotide triphosphates (dNTPs) prior to initiating amplification to a concentration of 100 μM or less; determining a melting curve of an amplicon generated in the amplifying step; and comparing the melting curve to a reference curve of a reference nucleic acid, wherein a difference between the two curves indicates the presence of a copy number variation. amplifying a region of interest of the nucleic acid sample while limiting amplification of the region of interest, wherein limiting amplification comprises one or more of: (a) limiting a total number of amplification cycles prior to a plateau of amplification of the region of interest; or (b) limiting a concentration of one or more of deoxyribonucleotide triphosphates (dNTPs) prior to initiating amplification to a concentration of 100 μM or less; (a) limiting a total number of amplification cycles prior to a plateau of amplification of the region of interest; or (b) limiting a concentration of one or more of deoxyribonucleotide triphosphates (dNTPs) prior to initiating amplification to a concentration of 100 μM or less; determining a melting curve of an amplicon generated in the amplifying step; and comparing the melting curve to a reference curve of a reference nucleic acid, wherein a difference between the two curves indicates the presence of a copy number variation.
A method for the thermal coating of a component stack including a component, wherein the component has a continuous component opening and the component is aligned with respect to a stack axis such that the component stack has a continuous stack opening, wherein the stack opening includes a first stack opening surface and a second stack opening surface, and the first stack opening surface and the second stack opening surface are arranged along the stack axis and, an inner bounding surface of the component opening is thermally coated from the inside by a coating beam (31, 71, 81) by means of a thermal spray apparatus (3, 7, 8), characterized in that the component stack is coated such that, during a first coating pass, a first angle (α) is formed between the first stack opening surface and the coating beam (31, 71, 81) and, during a second coating pass, a second angle (β) is formed between the first stack opening surface and the coating beam (31, 71, 81), wherein the first angle (α) and the second angle (β) are formed in opposite directions relative to the first stack opening surface.
A method of wireless communication at a first wireless communications device (704, 706), the method comprising: determining that a communication with a second wireless device (704, 706) is to be switched from a first frequency band of a first radio access technology, RAT, to a second frequency band of a second RAT, wherein the first RAT is unlicensed and the second RAT is licensed; switching to the second frequency band of the second RAT based on the determination that the communication in the first frequency band is to be switched; characterized by the method further comprising: transmitting, in the second frequency band to another wireless device (702, 708), a silencing signal (740, 742, 744) indicating that the another wireless device (702, 708) is to suspend communication in the second frequency band; and communicating (1208, 730) with the second wireless device (704, 706) in the second frequency band after the transmission of the silencing signal (740, 742, 744). determining that a communication with a second wireless device (704, 706) is to be switched from a first frequency band of a first radio access technology, RAT, to a second frequency band of a second RAT, wherein the first RAT is unlicensed and the second RAT is licensed; switching to the second frequency band of the second RAT based on the determination that the communication in the first frequency band is to be switched; transmitting, in the second frequency band to another wireless device (702, 708), a silencing signal (740, 742, 744) indicating that the another wireless device (702, 708) is to suspend communication in the second frequency band; and communicating (1208, 730) with the second wireless device (704, 706) in the second frequency band after the transmission of the silencing signal (740, 742, 744).
A method of hydrogen gas generation, comprising the steps of: i. culturing under anaerobic conditions in the dark a green alga species selected from the group consisting of Chlamydomonas sp., Chlorella sp., or Scenedesmus sp which is capable of expressing one or more types of hydrogenase enzymes (induction phase); ii. subsequently culturing the green alga under illuminated conditions in a medium substantially devoid of organic or inorganic carbon sources (production phase), whereupon activation of the CBB cycle in the alga is prevented, wherein substantially devoid of organic or inorganic carbon sources refers to a CO 2 content of less than 0.03% in the headspace of the culture, and wherein the light intensity is between 15 - 3100 μmol photons m -2 s -1 iii. removing the produced oxygen, and iv. collecting the evolved hydrogen gas. i. culturing under anaerobic conditions in the dark a green alga species selected from the group consisting of Chlamydomonas sp., Chlorella sp., or Scenedesmus sp which is capable of expressing one or more types of hydrogenase enzymes (induction phase); ii. subsequently culturing the green alga under illuminated conditions in a medium substantially devoid of organic or inorganic carbon sources (production phase), whereupon activation of the CBB cycle in the alga is prevented, wherein substantially devoid of organic or inorganic carbon sources refers to a CO 2 content of less than 0.03% in the headspace of the culture, and wherein the light intensity is between 15 - 3100 μmol photons m -2 s -1 iii. removing the produced oxygen, and iv. collecting the evolved hydrogen gas.
A method of wireless communication, comprising: receiving a plurality of symbols comprising a transmitted codeword, the plurality of symbols including a first group of data symbols with a first modulation and coding scheme and a second group of data modulated pilot symbols with a second modulation and coding scheme, wherein the second group of data modulated pilot symbols are used in lieu of pilot symbols, and wherein the data modulated pilot symbols are symbols that contain data in all the locations where a pilot symbol is expected; and adaptively switching (910, 915) between applicable demodulation schemes for each group of the plurality of symbols, wherein adaptively switching (910, 915) between the demodulation schemes comprises: determining, for each symbol, whether the symbol occurs when a pilot symbol is expected to occur; and determining a carrier phase error based at least in part on the second group of data modulated pilot symbols. receiving a plurality of symbols comprising a transmitted codeword, the plurality of symbols including a first group of data symbols with a first modulation and coding scheme and a second group of data modulated pilot symbols with a second modulation and coding scheme, wherein the second group of data modulated pilot symbols are used in lieu of pilot symbols, and wherein the data modulated pilot symbols are symbols that contain data in all the locations where a pilot symbol is expected; and adaptively switching (910, 915) between applicable demodulation schemes for each group of the plurality of symbols, wherein adaptively switching (910, 915) between the demodulation schemes comprises: determining, for each symbol, whether the symbol occurs when a pilot symbol is expected to occur; and determining a carrier phase error based at least in part on the second group of data modulated pilot symbols. determining, for each symbol, whether the symbol occurs when a pilot symbol is expected to occur; and determining a carrier phase error based at least in part on the second group of data modulated pilot symbols.
A density sensing device (200, 300) for measuring a density of a fuel solution of a fuel cell system comprising: a density sensor (200', 301) for measuring a density of a fuel solution of the fuel cell system and a protective chamber protecting the density sensor (200', 301); wherein the density sensor (200', 301) comprises: a collision sensor adapted to be dipped into a fuel solution and to detect collisions of molecules of a fuel solution; and a variable resistor coupled to the collision sensor, resistance of the variable resistor varying depending on an amount of the collision detected by the collision sensor. characterized in that the protective chamber fully encloses the density sensor (200', 301), the protective chamber protecting the density sensor (200', 301) from collision with impurity particles that are bigger than a predetermined size. a collision sensor adapted to be dipped into a fuel solution and to detect collisions of molecules of a fuel solution; and a variable resistor coupled to the collision sensor, resistance of the variable resistor varying depending on an amount of the collision detected by the collision sensor. characterized in that the protective chamber fully encloses the density sensor (200', 301), the protective chamber protecting the density sensor (200', 301) from collision with impurity particles that are bigger than a predetermined size.
Method for determining a quantity of a first radioisotope of a source term contained in a package, said first radioisotope is suitable for emitting a first gamma line, a second gamma line is also suitable for being emitted either by the first radioisotope or by a second radioisotope of the source term, the first gamma line and the second gamma line are suitable for being attenuated, each according to a different attenuation rate, by the matrix of the package and the source term per se, the method comprising the following steps: a) a step of measuring, by at least one gamma detector (13, 14) and according to two diametrically opposed positions in relation to the package, net counts associated with the first and second gamma lines emitted; b) in the knowledge of the ratio of the counts of the first and second gamma lines in the absence of attenuation and based on the results of step a), a step of determining the attenuation rates of the first and second gamma lines by the package matrix; c) a step of determining, based on the attenuation rate of one or the other of the first and second gamma lines determined in step b), the quantity, advantageously the mass, of first radioisotope contained in the source term. a) a step of measuring, by at least one gamma detector (13, 14) and according to two diametrically opposed positions in relation to the package, net counts associated with the first and second gamma lines emitted; b) in the knowledge of the ratio of the counts of the first and second gamma lines in the absence of attenuation and based on the results of step a), a step of determining the attenuation rates of the first and second gamma lines by the package matrix; c) a step of determining, based on the attenuation rate of one or the other of the first and second gamma lines determined in step b), the quantity, advantageously the mass, of first radioisotope contained in the source term.
Use in a combustion engine of a first combustion enhancer which is a cerium alkylbenzene sulphonate, wherein Ce ions are present in a concentration of from 0.1 to 1000 ppm, and a second combustion enhancer which is an iron alkyl carboxylate, wherein Fe ions are present in a concentration of from 0.1 to 2000 ppm, in a synthetic or mineral lubricant oil.
An isolated peptide consisting of the sequence CDWLPKPNMSASC (SEQ ID NO. 37) or a conservative substitutive variant thereof for use in treating an angiogenesis-dependent disease or disorder in a subject in need thereof, wherein the peptide is flanked by 0-1 amino acid residues on either terminus or both termini, and wherein the isolated peptide is capable of activating p53 and/or inducing Tsp-1 expression.
An optical device, comprising: a light waves-transmitting substrate having at least two major surfaces and edges; optical means for coupling light waves into said substrate by total internal reflection, and a plurality of partially reflecting surfaces carried by said substrate, wherein said partially reflecting surfaces are parallel to each other and are not parallel to any of the edges of said substrate; characterized in that at least two of said partially reflecting surfaces are anisotropic surfaces, each anisotropic surface having a major axis, wherein the major axis of said at least two anisotropic surfaces are parallel to a plane of the anisotropic surfaces, wherein the reflection and transmission properties of the anisotropic surfaces substantially depend on the orientation of the polarization of coupled light waves in relation to the major axis of each anisotropic surface, the anisotropic surfaces being mounted with the major axis in different directions such that the coupled light waves are partially reflected out of the substrate by the partially reflecting surfaces. a light waves-transmitting substrate having at least two major surfaces and edges; optical means for coupling light waves into said substrate by total internal reflection, and a plurality of partially reflecting surfaces carried by said substrate, wherein said partially reflecting surfaces are parallel to each other and are not parallel to any of the edges of said substrate; characterized in that at least two of said partially reflecting surfaces are anisotropic surfaces, each anisotropic surface having a major axis, wherein the major axis of said at least two anisotropic surfaces are parallel to a plane of the anisotropic surfaces, wherein the reflection and transmission properties of the anisotropic surfaces substantially depend on the orientation of the polarization of coupled light waves in relation to the major axis of each anisotropic surface, the anisotropic surfaces being mounted with the major axis in different directions such that the coupled light waves are partially reflected out of the substrate by the partially reflecting surfaces.
A method for manufacturing a footwear article comprising the steps of: (i)- providing a first knitted tubular part comprising at least one fusible portion, and one or more functional component(s) (60;70;75); (ii)- forming a footwear assembly comprising the first knitted tubular part and one or more functional component(s) (60;70;75); (iii)- transforming the footwear assembly, disposed on a preform having a foot shape in an upper, the transforming step comprising: - thermoforming the footwear assembly to follow the foot shape of the preform, and - securing, at least partial, the functional component(s) (60;70;75) to the first knitted tubular part, and the thermoforming and securing take place in a single step comprising the placing of the footwear assembly under vacuum, characterized in that the placement in a vacuum is done in a molding volume receiving the footwear assembly, and in that the step (iii) comprises disposing the footwear assembly previously disposed on the foot-shaped preform in said molding volume, said molding volume is delimited by a mold comprising several parts. (i)- providing a first knitted tubular part comprising at least one fusible portion, and one or more functional component(s) (60;70;75); (ii)- forming a footwear assembly comprising the first knitted tubular part and one or more functional component(s) (60;70;75); (iii)- transforming the footwear assembly, disposed on a preform having a foot shape in an upper, the transforming step comprising: - thermoforming the footwear assembly to follow the foot shape of the preform, and - securing, at least partial, the functional component(s) (60;70;75) to the first knitted tubular part, and - thermoforming the footwear assembly to follow the foot shape of the preform, and - securing, at least partial, the functional component(s) (60;70;75) to the first knitted tubular part, and
Process for encapsulation of a microelectronic device placed on a support substrate, with an encapsulation cover comprising the following successive steps: a) supply a support substrate made of a first material, comprising a first principal face on which a microelectronic device is placed, a second principal face opposite the first principal face, and a lateral face, b) deposit a bonding layer made of a second material on the first principal face of the substrate, around the microelectronic device, c) position an encapsulation cover made of a third material, comprising a first principal face, a second principal face opposite the first principal face, and a lateral face on the bonding layer, so as to fix the encapsulation cover on the support substrate so as to encapsulate the microelectronic device, d) deposit a lateral protection layer made of a fourth material on the lateral face of the support substrate, on the lateral face of the encapsulation cover, on the periphery of the second principal face of the encapsulation cover, and around the periphery of the second principal face of the support substrate, the lateral protection layer delimiting a protected zone, e) thinning of the second principal face of the support substrate and/or the second principal face of the encapsulation cover outside the protected zone, by chemical etching. a) supply a support substrate made of a first material, comprising a first principal face on which a microelectronic device is placed, a second principal face opposite the first principal face, and a lateral face, b) deposit a bonding layer made of a second material on the first principal face of the substrate, around the microelectronic device, c) position an encapsulation cover made of a third material, comprising a first principal face, a second principal face opposite the first principal face, and a lateral face on the bonding layer, so as to fix the encapsulation cover on the support substrate so as to encapsulate the microelectronic device, d) deposit a lateral protection layer made of a fourth material on the lateral face of the support substrate, on the lateral face of the encapsulation cover, on the periphery of the second principal face of the encapsulation cover, and around the periphery of the second principal face of the support substrate, the lateral protection layer delimiting a protected zone, e) thinning of the second principal face of the support substrate and/or the second principal face of the encapsulation cover outside the protected zone, by chemical etching.
Method for actuating an electromagnetic valve in a fluid system, wherein for a specified first period of time (T H, T T) a switching current (I1 SH, I2 SH, I1 ST, I2 ST) with a specified first amplitude (A SH, A ST) is applied, which switches the electromagnetic valve from a rest state into a switched state, wherein following the expiry of the specified first period of time (T H, T T), a holding current (I1 HH, I2 HH, I1 HT, I2 HT) with a specified second amplitude (A HH, A HT) is applied, which holds the electromagnetic valve in the switched state, wherein the first amplitude (A SH, A ST) of the switching current (I1 SH, I2 SH, I1 ST, I2 ST) is greater than the second amplitude (A HH, A HT) of the holding current (I1 HH, I2 HH, I1 HT, I2 HT), characterized in that the first amplitude (A SH, A ST) of the switching current (I1 SH, I2 SH, I1 ST, I2 ST) and the second amplitude (A HH, A HT) of the holding current (I1 HH, I2 HH, I1 HT, I2 HT) are specified as a function of at least one piece of temperature information.