mhurhangee/ep-ind-claims huggingface dataset:
Integrated process for the synthesis of methanol, ammonia and carbon monoxide, comprising: a) a synthesis of methanol by catalytic conversion of a first synthesis gas, which is a gas containing hydrogen and carbon oxides; b) a synthesis of ammonia by catalytic conversion of a second synthesis gas, which is an ammonia make-up gas including hydrogen and nitrogen, and c) a synthesis of carbon monoxide by oxidation of a methane-containing stream, wherein: said step a) provides a liquid stream of methanol and a gaseous stream containing unreacted synthesis gas; a portion of said gaseous stream containing unreacted synthesis gas is separated as a purge gas stream; said purge gas stream is subjected to a hydrogen recovery step, obtaining a hydrogen-containing stream and a tail gas containing methane and CO, and at least part of said hydrogen-containing stream is a hydrogen source for the ammonia make-up gas subjected to conversion of step b), and at least part of said tail gas is a methane source for the methane-containing stream subjected to oxidation of step c). a) a synthesis of methanol by catalytic conversion of a first synthesis gas, which is a gas containing hydrogen and carbon oxides; b) a synthesis of ammonia by catalytic conversion of a second synthesis gas, which is an ammonia make-up gas including hydrogen and nitrogen, and c) a synthesis of carbon monoxide by oxidation of a methane-containing stream, wherein: said step a) provides a liquid stream of methanol and a gaseous stream containing unreacted synthesis gas; a portion of said gaseous stream containing unreacted synthesis gas is separated as a purge gas stream; said purge gas stream is subjected to a hydrogen recovery step, obtaining a hydrogen-containing stream and a tail gas containing methane and CO, and at least part of said hydrogen-containing stream is a hydrogen source for the ammonia make-up gas subjected to conversion of step b), and at least part of said tail gas is a methane source for the methane-containing stream subjected to oxidation of step c). said step a) provides a liquid stream of methanol and a gaseous stream containing unreacted synthesis gas; a portion of said gaseous stream containing unreacted synthesis gas is separated as a purge gas stream; said purge gas stream is subjected to a hydrogen recovery step, obtaining a hydrogen-containing stream and a tail gas containing methane and CO, and at least part of said hydrogen-containing stream is a hydrogen source for the ammonia make-up gas subjected to conversion of step b), and at least part of said tail gas is a methane source for the methane-containing stream subjected to oxidation of step c).
Semiconductor module, provided as power electronic assembly, with an encapsulating mass that is provided as glob-top and covers a semiconductor component that is attached to a ceramic substrate, whereby the ceramic substrate is applied to the top side of a heat dissipation plate the underside of which is connected to a cooling body, whereby the semiconductor module comprises a frame as support of electrical contacts that are guided outwards, whereby the encapsulating mass is a cement produced from magnesium oxide, zirconium silicate, and magnesium phosphate as the basic raw materials, whereby the bond wires contacting the semiconductor component are encapsulated, at least in part, by the encapsulating mass, and whereby the "glob-top" and the further surface regions of the semiconductor module are covered by an insulating mass.
A mobile device, comprising: a communication interface configured for communicating with one or more other devices that are associated with the mobile device and that are controllable by the device, the one or more other associated devices corresponding to one or more users of the devices; a processing system to implement computer instructions as a device quiet service that is configured to: initiate a device quiet control configured to quiet one or more of the other associated devices that are in proximity of the mobile device at a location; and initiate communication of the device quiet control to the one or more of the other associated devices. a communication interface configured for communicating with one or more other devices that are associated with the mobile device and that are controllable by the device, the one or more other associated devices corresponding to one or more users of the devices; a processing system to implement computer instructions as a device quiet service that is configured to: initiate a device quiet control configured to quiet one or more of the other associated devices that are in proximity of the mobile device at a location; and initiate communication of the device quiet control to the one or more of the other associated devices. initiate a device quiet control configured to quiet one or more of the other associated devices that are in proximity of the mobile device at a location; and initiate communication of the device quiet control to the one or more of the other associated devices.
An applicator for applying a cosmetic, makeup or care product to the eyelashes and/or eyebrows, having: - a stem, and - an applicator member at one end of the stem, the applicator member being produced by molding material and having: - a core that extends along a longitudinal axis, and - application elements that are carried by the core and are disposed in a plurality of helical rows (26, 27) about the longitudinal axis of the core, the spacing between two consecutive application elements of a helical row being constant, the applicator member having at least one helical strip that extends through more than half a revolution about the longitudinal axis of the core, does not have application elements, and is delimited by two consecutive helical rows (26, 27) of application elements that extend parallel to one another, characterized in that the spacing ( e r) between these two consecutive helical rows (26, 27) of application elements is greater than the mean spacing ( e e) between the application elements within these helical rows (26, 27), the spacing ( e r) being between 1.1 to 1.8 times the spacing (ee), and in that the core is not twisted. - a stem, and - an applicator member at one end of the stem, the applicator member being produced by molding material and having: - a core that extends along a longitudinal axis, and - application elements that are carried by the core and are disposed in a plurality of helical rows (26, 27) about the longitudinal axis of the core, the spacing between two consecutive application elements of a helical row being constant, the applicator member having at least one helical strip that extends through more than half a revolution about the longitudinal axis of the core, does not have application elements, and is delimited by two consecutive helical rows (26, 27) of application elements that extend parallel to one another, characterized in that the spacing ( e r) between these two consecutive helical rows (26, 27) of application elements is greater than the mean spacing ( e e) between the application elements within these helical rows (26, 27), the spacing ( e r) being between 1.1 to 1.8 times the spacing (ee), and in that the core is not twisted. - a core that extends along a longitudinal axis, and - application elements that are carried by the core and are disposed in a plurality of helical rows (26, 27) about the longitudinal axis of the core, the spacing between two consecutive application elements of a helical row being constant,
A polypeptide that is suitable for use as a scaffold protein and comprises an amino acid sequence having at least 80% identity to amino acid residues 1 to 98 of SEQ ID NO: 1; characterised in that said polypeptide comprises one or more mutations relative to SEQ ID NO: 1 selected from the group consisting of: N32G, T51L, T51V, M65V, A59I, E29M, T34V, T34R, T45I, T45V, T51F, A59L, L67I, (E29K, K30E, E33K), (A59L, G60N, D61G, N62K), (A59V, D61N, N62K), (G60N, D61G, N62K), (G60N, ΔD61, N62G), ΔD61, (A59L, G60N, ΔD61, N62G), (A59V, G60N, D61G, N62K), (A59I, G60N, D61G, N62K), (A59I, G60N, ΔD61, N62G), (A59V, G60N, ΔD61, N62G), (A59V, ΔD61), L38A, V20I, A40I, L38V, A12I, A12V, I16L, V20L, Q26E, T31K, N32D, N32H, T34D, T34P, A40V, Q42D, V48E, V48G, V48A, T51A, (V20I, L38A), (V20L, L38A), (V20I, L38V), (V20L, L38V), (Y54D, T83D, Q86E), (G60P, ΔD61, N62P), (G60P, D61P, N62K), (G60P, ΔD61, N62G), (G60P, D61G, N62K), (D61N, N62K) and (T83D, Q86E); wherein said polypeptide has a Tm higher than the Tm of the polypeptide with the sequence MIPRGLSEAK PATPEIQEIV DKVKPQLEEK TNETYGKLEA VQYKTQVLAS TNYYIKVRAG DNKYMHLKVF NGPPGQNADR VLTGYQVDKN KDDELTGF. characterised in that said polypeptide comprises one or more mutations relative to SEQ ID NO: 1 selected from the group consisting of: N32G, T51L, T51V, M65V, A59I, E29M, T34V, T34R, T45I, T45V, T51F, A59L, L67I, (E29K, K30E, E33K), (A59L, G60N, D61G, N62K), (A59V, D61N, N62K), (G60N, D61G, N62K), (G60N, ΔD61, N62G), ΔD61, (A59L, G60N, ΔD61, N62G), (A59V, G60N, D61G, N62K), (A59I, G60N, D61G, N62K), (A59I, G60N, ΔD61, N62G), (A59V, G60N, ΔD61, N62G), (A59V, ΔD61), L38A, V20I, A40I, L38V, A12I, A12V, I16L, V20L, Q26E, T31K, N32D, N32H, T34D, T34P, A40V, Q42D, V48E, V48G, V48A, T51A, (V20I, L38A), (V20L, L38A), (V20I, L38V), (V20L, L38V), (Y54D, T83D, Q86E), (G60P, ΔD61, N62P), (G60P, D61P, N62K), (G60P, ΔD61, N62G), (G60P, D61G, N62K), (D61N, N62K) and (T83D, Q86E); wherein said polypeptide has a Tm higher than the Tm of the polypeptide with the sequence MIPRGLSEAK PATPEIQEIV DKVKPQLEEK TNETYGKLEA VQYKTQVLAS TNYYIKVRAG DNKYMHLKVF NGPPGQNADR VLTGYQVDKN KDDELTGF.
A spunbonded non-woven fabric comprising long fibers which comprise a thermoplastic polyurethane elastomer containing ethylene bisoleic acid amide and having a hardness (measured in JIS K-7311 by an A type durometer) of 75 to 85.
A surgical drill bit, comprising: a drill body component including a shaft, a drill portion, and an engagement end; and a guide body component (510, 510', 510",510′′′) configured to reversibly couple to the drill body component, the guide body component (510,..) including: a guide body portion including a guide body; and an engagement portion coupled to the guide body portion, the engagement portion having a tool end and a connection end, wherein the connection end is configured to couple with the guide body portion and reversibly couple with the engagement end of the drill body component and wherein the connection end includes a drill connection that couples with the drill body component, the drill connection including: at least one flexible arm; and a projection including a flat. a drill body component including a shaft, a drill portion, and an engagement end; and a guide body component (510, 510', 510",510′′′) configured to reversibly couple to the drill body component, the guide body component (510,..) including: a guide body portion including a guide body; and an engagement portion coupled to the guide body portion, the engagement portion having a tool end and a connection end, a guide body portion including a guide body; and an engagement portion coupled to the guide body portion, the engagement portion having a tool end and a connection end, wherein the connection end is configured to couple with the guide body portion and reversibly couple with the engagement end of the drill body component and wherein the connection end includes a drill connection that couples with the drill body component, the drill connection including: at least one flexible arm; and a projection including a flat. at least one flexible arm; and a projection including a flat.
A method for assessing the radiosensitivity of a breast cancer cell comprising detecting expression of a plurality genes indicative of radiosensitivity and/or radioresistance wherein said genes indicative of radiosensitivity are the 51 genes in Table 6.
A brake assembly (100, 200) comprising: a heat sink (104, 204); a piston (106, 206); and a retraction plate (108, 208) defining a lumen (112, 212); wherein the piston (106, 206) is mechanically separated from the retraction plate (108, 208), wherein the piston (106, 206) is configured to extend through the lumen (112, 212) defined by the retraction plate (108, 208) to contact the heat sink (104, 204) during a braking operation, and wherein the piston (106, 206) is configured to contact the heat sink (104, 204) prior to the retraction plate (108, 208) contacting the heat sink (104, 204) during the braking operation. a heat sink (104, 204); a piston (106, 206); and a retraction plate (108, 208) defining a lumen (112, 212); wherein the piston (106, 206) is mechanically separated from the retraction plate (108, 208), wherein the piston (106, 206) is configured to extend through the lumen (112, 212) defined by the retraction plate (108, 208) to contact the heat sink (104, 204) during a braking operation, and wherein the piston (106, 206) is configured to contact the heat sink (104, 204) prior to the retraction plate (108, 208) contacting the heat sink (104, 204) during the braking operation.
Integrated circuit for operation in an area with ionising radiation, with at least one part of a temperature control circuit for the regulated increase of the circuit temperature to a predefined, essentially constant operating temperature, by increasing the electrical power consumption (P V) of the circuit by an adjustable additional electrical power (P H), and with an output facility for information about damage to the integrated circuit caused by the ionising radiation impacting thereon, whereas the information about damage being determined from a radiation-dose-dependent decrease in the adjustable additional electrical power (P H).
An electrophotographic photosensitive member comprising: a support; and a photosensitive layer formed on the support, the photosensitive layer comprising a charge generation layer and a charge transport layer formed on the charge generation layer; wherein the charge generation layer comprises: a gallium phthalocyanine, and a compound represented by the following formula: H 2 N-CH 2 -R 1 -CH 2 -NH 2 wherein the content of the compound represented by the formula in the charge generation layer is from 10 ppm to 1,000 ppm (mass ratio) based on the gallium phthalocyanine; and wherein, in formula, R 1 represents a single bond, or a substituted or unsubstituted alkylene group having 1 to 10 main-chain carbon atoms, a substituent of the substituted alkylene group is an alkyl group having 1 to 3 carbon atoms, an alkyl group having 1 to 3 carbon atoms and substituted with an amino group, or a hydroxy group, one of the carbon atoms in the main chain of the alkylene group may be replaced with an oxygen atom, a sulfur atom, or a bivalent group represented by the formula -NR 2 -, and R 2 represents a hydrogen atom, an alkyl group having 1 to 3 carbon atoms, or an alkyl group having 1 to 3 carbon atoms and substituted with an amino group. a support; and a photosensitive layer formed on the support, the photosensitive layer comprising a charge generation layer and a charge transport layer formed on the charge generation layer; wherein the charge generation layer comprises: a gallium phthalocyanine, and a compound represented by the following formula: H 2 N-CH 2 -R 1 -CH 2 -NH 2 a gallium phthalocyanine, and a compound represented by the following formula: H 2 N-CH 2 -R 1 -CH 2 -NH 2 wherein the content of the compound represented by the formula in the charge generation layer is from 10 ppm to 1,000 ppm (mass ratio) based on the gallium phthalocyanine; and wherein, in formula, R 1 represents a single bond, or a substituted or unsubstituted alkylene group having 1 to 10 main-chain carbon atoms, a substituent of the substituted alkylene group is an alkyl group having 1 to 3 carbon atoms, an alkyl group having 1 to 3 carbon atoms and substituted with an amino group, or a hydroxy group, one of the carbon atoms in the main chain of the alkylene group may be replaced with an oxygen atom, a sulfur atom, or a bivalent group represented by the formula -NR 2 -, and R 2 represents a hydrogen atom, an alkyl group having 1 to 3 carbon atoms, or an alkyl group having 1 to 3 carbon atoms and substituted with an amino group. R 1 represents a single bond, or a substituted or unsubstituted alkylene group having 1 to 10 main-chain carbon atoms, a substituent of the substituted alkylene group is an alkyl group having 1 to 3 carbon atoms, an alkyl group having 1 to 3 carbon atoms and substituted with an amino group, or a hydroxy group, one of the carbon atoms in the main chain of the alkylene group may be replaced with an oxygen atom, a sulfur atom, or a bivalent group represented by the formula -NR 2 -, and R 2 represents a hydrogen atom, an alkyl group having 1 to 3 carbon atoms, or an alkyl group having 1 to 3 carbon atoms and substituted with an amino group.
A sensor assembly for a drug delivery device, comprising: (i) a first rotary sensor part comprising a surface having: - a circumferentially arranged reference track, and - a plurality of individual electrically conducting code segments arranged in a pattern, (ii) a second rotary sensor part arranged rotationally relative to the first part, comprising: - a plurality of contact structures, characterized by - each code segment being arranged in the reference track but electrically isolated therefrom, thereby forming a plurality of electrically conducting reference segments between the code segments, and - each contact structure being arranged to be in contact with either a code segment or a reference segment depending on the rotational position between the first and second rotary sensor part, wherein: - the contact structures are configured to engage and connect to different sensor segments as the first and second rotary sensor part rotate relative to each, the created connections being indicative of a rotational position between the first and second rotary sensor part, and - for a given rotational position, at least one contact structure engages a code segment and at least one contact structure engages a reference segment. (i) a first rotary sensor part comprising a surface having: - a circumferentially arranged reference track, and - a plurality of individual electrically conducting code segments arranged in a pattern, - a circumferentially arranged reference track, and - a plurality of individual electrically conducting code segments arranged in a pattern, (ii) a second rotary sensor part arranged rotationally relative to the first part, comprising: - a plurality of contact structures, - a plurality of contact structures, - each code segment being arranged in the reference track but electrically isolated therefrom, thereby forming a plurality of electrically conducting reference segments between the code segments, and - each contact structure being arranged to be in contact with either a code segment or a reference segment depending on the rotational position between the first and second rotary sensor part, - the contact structures are configured to engage and connect to different sensor segments as the first and second rotary sensor part rotate relative to each, the created connections being indicative of a rotational position between the first and second rotary sensor part, and - for a given rotational position, at least one contact structure engages a code segment and at least one contact structure engages a reference segment.
A data transmitter (206, 216) associated with a first processor (200, 210) and configured to transmit data over an interface to a data receiver (208, 218) associated with a second processor (200,210), the data transmitter further configured to: transmit (412, 492, 512, 592, 612, 692) data over the interface at a first data rate; determine (414, 514, 614) to change the first data rate to a second data rate; transmit (416, 496, 516, 596, 616, 696), to the data receiver, a request to change the first data rate to the second data rate; receive (418, 498, 518, 598, 618, 698) a response message from the data receiver; and transmit (420, 499, 515, 595, 520, 599, 620, 699) data over the interface at the second data rate when the response message comprises an acknowledgement to change the first data rate to the second data rate; and further configured to: start transmitting (515, 595, 520, 599) data over the interface at the second data rate before transmitting the request if the second data rate is lower than the first data rate; and start transmitting data (620, 699) over the interface at the second data rate after receiving the acknowledgement if the second data rate is higher than the first data rate. transmit (412, 492, 512, 592, 612, 692) data over the interface at a first data rate; determine (414, 514, 614) to change the first data rate to a second data rate; transmit (416, 496, 516, 596, 616, 696), to the data receiver, a request to change the first data rate to the second data rate; receive (418, 498, 518, 598, 618, 698) a response message from the data receiver; and transmit (420, 499, 515, 595, 520, 599, 620, 699) data over the interface at the second data rate when the response message comprises an acknowledgement to change the first data rate to the second data rate; and further configured to: start transmitting (515, 595, 520, 599) data over the interface at the second data rate before transmitting the request if the second data rate is lower than the first data rate; and start transmitting data (620, 699) over the interface at the second data rate after receiving the acknowledgement if the second data rate is higher than the first data rate. start transmitting (515, 595, 520, 599) data over the interface at the second data rate before transmitting the request if the second data rate is lower than the first data rate; and start transmitting data (620, 699) over the interface at the second data rate after receiving the acknowledgement if the second data rate is higher than the first data rate.
Device for supplying preforms, in particular preforms made of thermoplastic material intended to be shaped into containers, suitable for preforms having a collar, the supply device having: - a first source of preforms; - a first file-forming slide for the preforms, having two sliding rails intended to support the preforms upright by their collar, the first file-forming slide being supplied by the first source of preforms; - a supply wheel rotating on a fixed frame of the supply device, which has notches for receiving a preform that are distributed at its periphery and each of which is configured to receive a preform arriving via a downstream end of the first file-forming slide oriented tangentially to the supply wheel at a point of tangency; characterized in that the supply device also has: - a second source of preforms, distinct from the first source of preforms; - a second file-forming slide having two sliding rails intended to support the preforms upright by their collar, the second file-forming slide being supplied by the second source of preforms, a downstream end of the second file-forming slide being oriented tangentially to the supply wheel at a point of tangency. - a first source of preforms; - a first file-forming slide for the preforms, having two sliding rails intended to support the preforms upright by their collar, the first file-forming slide being supplied by the first source of preforms; - a supply wheel rotating on a fixed frame of the supply device, which has notches for receiving a preform that are distributed at its periphery and each of which is configured to receive a preform arriving via a downstream end of the first file-forming slide oriented tangentially to the supply wheel at a point of tangency; characterized in that the supply device also has: - a second source of preforms, distinct from the first source of preforms; - a second file-forming slide having two sliding rails intended to support the preforms upright by their collar, the second file-forming slide being supplied by the second source of preforms, a downstream end of the second file-forming slide being oriented tangentially to the supply wheel at a point of tangency.