mhurhangee/ep-ind-claims huggingface dataset:
Process for metallization of an article having a plastic surface comprising, in the following order, the steps a) fastening the article to a plastic rack, wherein the rack does not comprise a plastic surface like the plastic surface of the article and is free of a plastic selected from the group consisting of acrylonitrile-butadiene-styrene, acrylonitrile-butadiene-styrene blends, polypropylene and mixtures thereof; b) etching the plastic surface with an aqueous etching solution free of Cr 6+; c) treating the plastic surface with a reducing agent by treating the plastic surface with an aqueous reducing solution and afterwards treating the plastic surface of the article and the rack with an aqueous acidic rack conditioning solution, and/or treating the plastic surface of the article and the rack with an aqueous acidic rack conditioning solution comprising a reducing agent, which results in a simultaneous treatment with the reducing agent and the conditioning solution; and d) metallizing the plastic surface; wherein the aqueous acidic rack conditioning solution comprises water, at least one organosulfur compound and at least one inorganic acid at temperatures from 25°C to 70°C, preferably 45 to 60°C, most preferably 45 to 55°C, and wherein the at least one organosulfur compound is an organosulfur compound containing bivalent sulphur. a) fastening the article to a plastic rack, wherein the rack does not comprise a plastic surface like the plastic surface of the article and is free of a plastic selected from the group consisting of acrylonitrile-butadiene-styrene, acrylonitrile-butadiene-styrene blends, polypropylene and mixtures thereof; b) etching the plastic surface with an aqueous etching solution free of Cr 6+; c) treating the plastic surface with a reducing agent by treating the plastic surface with an aqueous reducing solution and afterwards treating the plastic surface of the article and the rack with an aqueous acidic rack conditioning solution, and/or treating the plastic surface of the article and the rack with an aqueous acidic rack conditioning solution comprising a reducing agent, which results in a simultaneous treatment with the reducing agent and the conditioning solution; and d) metallizing the plastic surface;
A package comprising a reservoir containing a flowable composition in combination with a dispenser for dispensing the flowable composition, wherein the reservoir comprises a reservoir recess which provides a handle and the dispenser comprises a filling/dispensing recess, the dispenser being releasably retained in the reservoir recess such that the recesses are in a nested configuration, characterised in that the recess is circular in cross section when viewed laterally, i.e. when the package is viewed laterally, in that the reservoir recess is located centrally within the reservoir and in that the recesses of the reservoir and of the dispenser are nested such that the handle function of the reservoir recess is replicated by that of the dispenser recess.
A user identification module, for use in a mobile communication device, comprising a microcontroller allowing for executing programs and for storing data in the identification module, a first data item stored in user identification module, wherein the user identification module is arranged to read a value of a parameter used in the operation of the user identification module by accessing the first data item, the first data item including a reference addressing one second data item and the value of the parameter being accessed by dereferencing the reference, and at least two second data items stored in the user identification module, wherein the second data items are arranged to be unmodifiable and each second data item including a value of the parameter, wherein the microcontroller is arranged to change the reference included in the first data item from referring to one second data item to refer to a further second data item to change the value of the parameter.
A hand tool comprising: - a handle having a connection end which includes two parallel arms and a space defined between the two arms; - a driving member having an insertion which includes an engaging notch defined in an underside thereof, the insertion located in the space between the two arms; and - a pin extending through the two arms and the engaging notch of the insertion, wherein the engaging notch has an open end formed on the bottom of the insertion of the driving member for engaging/disengaging the driving member with/from the handle, such that the driving member is replaced easily, wherein a first recess is defined in an inner end of the space between the two arms and a first engaging unit is received in the first recess, the first engaging unit includes a spring and a pawl member which is engaged with a distal end of the insertion of the driving member, and wherein a passage is defined in the distal end of the insertion and communicates with the engaging notch, a second engaging unit is received in the passage, the second engaging unit includes a bead, a spring which biases the bead toward the engaging notch and a seal member which seals an opening defined by the passage in the distal end of the insertion, the bead partially protrudes in the engaging notch and is in contact with the pin. - a handle having a connection end which includes two parallel arms and a space defined between the two arms; - a driving member having an insertion which includes an engaging notch defined in an underside thereof, the insertion located in the space between the two arms; and - a pin extending through the two arms and the engaging notch of the insertion, wherein the engaging notch has an open end formed on the bottom of the insertion of the driving member for engaging/disengaging the driving member with/from the handle, such that the driving member is replaced easily, wherein a first recess is defined in an inner end of the space between the two arms and a first engaging unit is received in the first recess, the first engaging unit includes a spring and a pawl member which is engaged with a distal end of the insertion of the driving member, and wherein a passage is defined in the distal end of the insertion and communicates with the engaging notch, a second engaging unit is received in the passage, the second engaging unit includes a bead, a spring which biases the bead toward the engaging notch and a seal member which seals an opening defined by the passage in the distal end of the insertion, the bead partially protrudes in the engaging notch and is in contact with the pin.
A SEZ6 ADC of the structure: wherein Ab comprises an anti-SEZ6 antibody having a heavy chain sequence of SEQ ID NO:3 and a light chain sequence of SEQ ID NO:4 and wherein n is 2.
A heating element structure comprising: a conductive metal substrate; a heating layer spaced apart from the conductive metal substrate and configured to generate heat in response to an electrical signal; electrodes (13a,13b) in contact with the heating layer and configured to provide the electrical signal to the heating layer; and a first insulating layer on the conductive metal substrate, the first insulating layer comprising a first matrix material and a particle, characterised in that the difference between the coefficient of thermal expansion of the first matrix material and the coefficient of thermal expansion of the particle is 4×10 -6 per Kelvin or less. a conductive metal substrate; a heating layer spaced apart from the conductive metal substrate and configured to generate heat in response to an electrical signal; electrodes (13a,13b) in contact with the heating layer and configured to provide the electrical signal to the heating layer; and a first insulating layer on the conductive metal substrate, the first insulating layer comprising a first matrix material and a particle, characterised in that the difference between the coefficient of thermal expansion of the first matrix material and the coefficient of thermal expansion of the particle is 4×10 -6 per Kelvin or less.
A control element, in particular a switching device, for manually controlling and/or triggering functions in a motor vehicle, comprising a handle, wherein the handle is mounted on a support in such a way that the handle can be adjusted in at least one direction (4, 5) from a neutral position, in particular into an adjustment position, comprising a pressure element, which cooperates with the handle and which is guided in a gate path of a gate and to which an elastic force is applied, in particular in such a way that a restoring force acts on the handle in the direction of the neutral position when said handle is adjusted, and comprising a means, which acts on the handle in such a way that the handle is tensioned in the gate in order to reduce the movement play of the handle, characterized in that the means, which acts on the handle in a tensioning manner, is formed as a cam, that the cam is located in the gate, and that the cam is located at a gate wall of the gate located opposite the gate path.
An integrated sensor chip comprising at least one pixel, wherein the at least one pixel comprises: at least two integration regions (IGL; IRL) for receiving and storing photogenerated charges; a modulation region for moving the photogenerated charges to be stored to the at least two integration regions; sense nodes (SNL; SNR), in which each of the sense nodes (SNL; SNR) is associated with one of the integration regions (IGL; IGR), into which the photogenerated charges are moved from the integration regions (IGL; IGR) during a readout cycle; and characterized in that the chip comprises: at least one ramp function generator for generating a time-varying ramp function (intg) that is applied to the integration regions (IGL; IGR) during the readout cycle to move the photogenerated charges to the sense nodes (SNL; SNR); a counter for generating a count during the generation of the time-varying ramp function (intg); registers (REGL; REGR), in which each of the registers (REGL; REGR) is associated with one of the sense nodes (SNL; SNR) during the readout cycle, for storing digital values; wherein the registers (REGL; REGR) store the count in response to the associated sense node (SNL; SNR) receiving photogenerated charges from the associated integration regions (IGL; IGR). at least two integration regions (IGL; IRL) for receiving and storing photogenerated charges; a modulation region for moving the photogenerated charges to be stored to the at least two integration regions; sense nodes (SNL; SNR), in which each of the sense nodes (SNL; SNR) is associated with one of the integration regions (IGL; IGR), into which the photogenerated charges are moved from the integration regions (IGL; IGR) during a readout cycle; and characterized in that the chip comprises: at least one ramp function generator for generating a time-varying ramp function (intg) that is applied to the integration regions (IGL; IGR) during the readout cycle to move the photogenerated charges to the sense nodes (SNL; SNR); a counter for generating a count during the generation of the time-varying ramp function (intg); registers (REGL; REGR), in which each of the registers (REGL; REGR) is associated with one of the sense nodes (SNL; SNR) during the readout cycle, for storing digital values; wherein the registers (REGL; REGR) store the count in response to the associated sense node (SNL; SNR) receiving photogenerated charges from the associated integration regions (IGL; IGR). at least one ramp function generator for generating a time-varying ramp function (intg) that is applied to the integration regions (IGL; IGR) during the readout cycle to move the photogenerated charges to the sense nodes (SNL; SNR); a counter for generating a count during the generation of the time-varying ramp function (intg); registers (REGL; REGR), in which each of the registers (REGL; REGR) is associated with one of the sense nodes (SNL; SNR) during the readout cycle, for storing digital values; wherein the registers (REGL; REGR) store the count in response to the associated sense node (SNL; SNR) receiving photogenerated charges from the associated integration regions (IGL; IGR).
A laser cladding system for cladding the interior of a metal tube-like structure, said cladding system comprising: a) a subsystem for holding and rotating said tube-like structure at a predetermined speed and a predetermined substantially vertical position, wherein said holding and rotating subsystem is arranged to rotate said tube-like structure; b) a laser cladding head arranged to irradiate an internal surface of said tube-like structure at a predetermined angle to a normal direction of the internal side of said tube-like structure; wherein said laser cladding head comprises a cladding powder dispensing nozzle, c) a translating system arranged for moving said laser cladding head in a direction along the axis of the tube-like structure being cladded; d) an induction heater arranged around the vertically aligned tube-like structure, wherein the induction heater is arranged to raise the temperature of said tube-like structure; and e) a downdraft system arranged to pull air from an upper opening of said tube-like structure to a lower opening of said tube-like structure. a) a subsystem for holding and rotating said tube-like structure at a predetermined speed and a predetermined substantially vertical position, wherein said holding and rotating subsystem is arranged to rotate said tube-like structure; b) a laser cladding head arranged to irradiate an internal surface of said tube-like structure at a predetermined angle to a normal direction of the internal side of said tube-like structure; wherein said laser cladding head comprises a cladding powder dispensing nozzle, c) a translating system arranged for moving said laser cladding head in a direction along the axis of the tube-like structure being cladded; d) an induction heater arranged around the vertically aligned tube-like structure, wherein the induction heater is arranged to raise the temperature of said tube-like structure; and e) a downdraft system arranged to pull air from an upper opening of said tube-like structure to a lower opening of said tube-like structure.
An isolated polypeptide having cellobiohydrolase activity, selected from the group consisting of: (a) a polypeptide having at least 86%, at least 87%, at least 88%, at least 89%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to amino acids 20 to 456 of SEQ ID NO: 2; (b) a polypeptide encoded by a polynucleotide having at least 88%, at least 89%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to nucleotides 58 to 1786 of SEQ ID NO: 1 or the cDNA sequence thereof. (a) a polypeptide having at least 86%, at least 87%, at least 88%, at least 89%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to amino acids 20 to 456 of SEQ ID NO: 2; (b) a polypeptide encoded by a polynucleotide having at least 88%, at least 89%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to nucleotides 58 to 1786 of SEQ ID NO: 1 or the cDNA sequence thereof.
A composition adapted for forming an enamel coating on a metal substrate, the composition prior to firing, comprising in weight % with respect to the glass component formulation range: (i) a glass component including: from 7.1% to 7.9% Na 2 O; from 7.0% to 7.7% K 2 O; from 0.6% to 1.0% ZnO; from 2.7% to 3.3% BaO; from 19.3% to 20.7% Al 2 O 3; from 10.8% to 11.8% SiO 2; from 0.7% to 1.2% TiO 2; from 14.4% to 15.6% ZrO 2; from 29.2% to 31.3% P 2 O 5, and from 0.1% to 5.2% Co 2 O 3. (i) a glass component including: from 7.1% to 7.9% Na 2 O; from 7.0% to 7.7% K 2 O; from 0.6% to 1.0% ZnO; from 2.7% to 3.3% BaO; from 19.3% to 20.7% Al 2 O 3; from 10.8% to 11.8% SiO 2; from 0.7% to 1.2% TiO 2; from 14.4% to 15.6% ZrO 2; from 29.2% to 31.3% P 2 O 5, and from 0.1% to 5.2% Co 2 O 3. from 7.1% to 7.9% Na 2 O; from 7.0% to 7.7% K 2 O; from 0.6% to 1.0% ZnO; from 2.7% to 3.3% BaO; from 19.3% to 20.7% Al 2 O 3; from 10.8% to 11.8% SiO 2; from 0.7% to 1.2% TiO 2; from 14.4% to 15.6% ZrO 2; from 29.2% to 31.3% P 2 O 5, and from 0.1% to 5.2% Co 2 O 3.
A method for producing a measurement structure (1008, 1010, 1102) for measuring alignment of a pattern formed in a layer of patternable material disposed over a substrate using multiple exposure tools having different resolution limits and maximum expose field sizes, wherein the measurement structure (1008, 1010, 1102) includes multiple complementary parts, the method comprising: coating the substrate with a patternable material, exposing an abutting field pattern in the layer of patternable material using a first exposure tool and a first mask holding a unit cell pattern and portions of the multiple complementary parts, wherein the abutting field pattern is stitched in the patternable material and includes plural stitched unit cell patterns and a first portion (1008, 1010) of the multiple complementary parts; and exposing a periphery pattern (1100, 1102) in the layer of patternable material that surrounds the stitched abutting field pattern using a second exposure tool and a second mask, wherein the periphery pattern includes a second portion of the multiple complementary parts that is complementary with the first portion (1008, 1010) of the multiple complementary parts,, wherein a maximum expose field of the first exposure tool is smaller than the maximum expose field of the second exposure tool so that the combination of the stitched abutting field pattern and the periphery pattern (1100, 1102) forms a complementary measurement structure (1008, 1010, 1102) in the layer of patternable material. coating the substrate with a patternable material, exposing an abutting field pattern in the layer of patternable material using a first exposure tool and a first mask holding a unit cell pattern and portions of the multiple complementary parts, wherein the abutting field pattern is stitched in the patternable material and includes plural stitched unit cell patterns and a first portion (1008, 1010) of the multiple complementary parts; and exposing a periphery pattern (1100, 1102) in the layer of patternable material that surrounds the stitched abutting field pattern using a second exposure tool and a second mask, wherein the periphery pattern includes a second portion of the multiple complementary parts that is complementary with the first portion (1008, 1010) of the multiple complementary parts,, wherein a maximum expose field of the first exposure tool is smaller than the maximum expose field of the second exposure tool so that the combination of the stitched abutting field pattern and the periphery pattern (1100, 1102) forms a complementary measurement structure (1008, 1010, 1102) in the layer of patternable material.
A data transmitting/receiving method that is performed between a master device and at least one slave device, a data frame transmitted/received between the master device and the slave device being configured to include a synchronization section that defines a signal used for the synchronization, a payload section that includes at least one payload and a combined information header defining the number of the payloads and a payload length of each of the payloads, and a header section that defines a payload length of the whole payload section, the data transmitting/receiving method comprising: synchronization establishing step for establishing synchronization between the master device and the slave device based on predetermined synchronization information; receiving step for receiving the data frame after the establishment of the synchronization; payload extracting step for extracting the payloads from the received data frame; payload generating step for generating a new payload section by combining the extracted payloads with another payload extracted from another data frame received from another device or a new payload generated by the device; header generating step for generating a new synchronization section and a new header section; data frame generating step for generating a new data frame by combining the new synchronization section and the new header section that are generated with the new payload section; and transmitting step for transmitting the generated new data frame; characterized in that a slave device recognizing a device having a high priority level for being a master device determines to be connected based on a predetermined criterion, the predetermined criterion being a distance up to a collection meter, a distance from a device that has transmitted a scan request or an order in which scan responses are transmitted. synchronization establishing step for establishing synchronization between the master device and the slave device based on predetermined synchronization information; receiving step for receiving the data frame after the establishment of the synchronization; payload extracting step for extracting the payloads from the received data frame; payload generating step for generating a new payload section by combining the extracted payloads with another payload extracted from another data frame received from another device or a new payload generated by the device; header generating step for generating a new synchronization section and a new header section; data frame generating step for generating a new data frame by combining the new synchronization section and the new header section that are generated with the new payload section; and transmitting step for transmitting the generated new data frame; characterized in that a slave device recognizing a device having a high priority level for being a master device determines to be connected based on a predetermined criterion, the predetermined criterion being a distance up to a collection meter, a distance from a device that has transmitted a scan request or an order in which scan responses are transmitted.