mhurhangee/ep-ind-claims huggingface dataset:
Method for gesture detection comprising pre-processing and main-processing steps, wherein the pre-processing comprises: - emitting light using a light emitting device (IR_LED), and - generating of directional sensor signals (CH1, CH2, CH3, CH4) as a function of time by detecting a fraction of the emitted light reflected by means of a movable object using a directional light sensor array, wherein the fraction of the emitted light is detected by means of directional photo-diodes (PD1, PD2, PD3, PD4) of the directional light sensor array, wherein each photo-diode of the directional photo-diodes (PD1, PD2, PD3, PD4) is used for detecting light in a predominant direction defined by a principal axis of a respective channel within the light sensor array and is placed in front of an end of the respective channel, and wherein the main-processing comprises: - calculating coordinates (x_coord, y_coord) as a function of time by using the directional sensor signals (CH1, CH2, CH3, CH4), being indicative of a position of the object with reference to a plane parallel to a principal plane of the light sensor array, and - detecting a movement of the object depending on the timing of the coordinates (x_coord, y_coord). - emitting light using a light emitting device (IR_LED), and - generating of directional sensor signals (CH1, CH2, CH3, CH4) as a function of time by detecting a fraction of the emitted light reflected by means of a movable object using a directional light sensor array, wherein the fraction of the emitted light is detected by means of directional photo-diodes (PD1, PD2, PD3, PD4) of the directional light sensor array, wherein each photo-diode of the directional photo-diodes (PD1, PD2, PD3, PD4) is used for detecting light in a predominant direction defined by a principal axis of a respective channel within the light sensor array and is placed in front of an end of the respective channel, and - calculating coordinates (x_coord, y_coord) as a function of time by using the directional sensor signals (CH1, CH2, CH3, CH4), being indicative of a position of the object with reference to a plane parallel to a principal plane of the light sensor array, and - detecting a movement of the object depending on the timing of the coordinates (x_coord, y_coord).
A bubble pump having: a pump body comprising a vertical steel tube configured to allow for the transport of molten metal there through; said pump body having an interior formed from a cast ceramic material that resists attack by molten metal; a nitrogen supply line attached to a lower portion of said pump body; said nitrogen supply line and said pump body communicating so as to allow the flow of nitrogen from said nitrogen supply line into the interior of said pump body; and a discharge head attached to the top of said pump body, said discharge head being formed of a cast ceramic material that resists attack by molten metal; said discharge head communicating with said pump body so as to allow for transport of molten metal and nitrogen from said pump body, into and then out of said discharge head, said discharge head containing a distribution chamber therein, said distribution chamber in communication with said pump body to allow for the flow of molten metal and nitrogen from said pump body through said distribution chamber, said distribution chamber having an ellipsoidal dome shape with a generally flat bottom and an ellipsoidal top, said pump body being wrapped in one or more layers of ceramic cloth to provide the exterior of said pump body with flexible resistance to attack by molten metal, said nitrogen supply line being also wrapped in one or more layers of ceramic cloth to provide the exterior of said pump body with flexible resistance to attack by molten metal. a pump body comprising a vertical steel tube configured to allow for the transport of molten metal there through; said pump body having an interior formed from a cast ceramic material that resists attack by molten metal; a nitrogen supply line attached to a lower portion of said pump body; said nitrogen supply line and said pump body communicating so as to allow the flow of nitrogen from said nitrogen supply line into the interior of said pump body; and a discharge head attached to the top of said pump body, said discharge head being formed of a cast ceramic material that resists attack by molten metal; said discharge head communicating with said pump body so as to allow for transport of molten metal and nitrogen from said pump body, into and then out of said discharge head, said discharge head containing a distribution chamber therein, said distribution chamber in communication with said pump body to allow for the flow of molten metal and nitrogen from said pump body through said distribution chamber, said distribution chamber having an ellipsoidal dome shape with a generally flat bottom and an ellipsoidal top, said pump body being wrapped in one or more layers of ceramic cloth to provide the exterior of said pump body with flexible resistance to attack by molten metal, said nitrogen supply line being also wrapped in one or more layers of ceramic cloth to provide the exterior of said pump body with flexible resistance to attack by molten metal.
Adapter device (100, 100.1), comprising: - a receptacle (10, 10.1), adapted for the detachable securing of a sample chamber (20, 20.1), in particular for the cryoconservation of a biological sample, and - a coupling device (30, 30.1), adapted for connecting the receptacle (10, 10.1) to a base section which can be secured in a cooling device, characterized in that - the receptacle (10, 10.1) has at least one receiving element (11, 12), which is made of a material, that - in a holding state at a cryopreservation temperature excludes flexible deformation so that the at least one receiving element (11, 12) is immobile in the holding state at the cryopreservation temperature and secures the sample chamber (20,20,1), and that - is flexible in a release state at a temperature above the cryopreservation temperature so that the at least one receiving element (11, 12) is deformable and/or movable in the release state at the temperature above the cryopreservation temperature, so that the sample chamber (20, 20.1) can be detached from the adapter device (100,100.1) or can be inserted into the adapter device (100,100.1). - a receptacle (10, 10.1), adapted for the detachable securing of a sample chamber (20, 20.1), in particular for the cryoconservation of a biological sample, and - a coupling device (30, 30.1), adapted for connecting the receptacle (10, 10.1) to a base section which can be secured in a cooling device, - the receptacle (10, 10.1) has at least one receiving element (11, 12), which is made of a material, that - in a holding state at a cryopreservation temperature excludes flexible deformation so that the at least one receiving element (11, 12) is immobile in the holding state at the cryopreservation temperature and secures the sample chamber (20,20,1), and that - is flexible in a release state at a temperature above the cryopreservation temperature so that the at least one receiving element (11, 12) is deformable and/or movable in the release state at the temperature above the cryopreservation temperature, so that the sample chamber (20, 20.1) can be detached from the adapter device (100,100.1) or can be inserted into the adapter device (100,100.1).
Method in a serving node in a first system associated with a first frequency band for radio communication, for avoiding or reducing interference in a second frequency band associated with a second system and adjacent to the first frequency band, the method comprising: - detecting activity of the second system in the second frequency band, - determining characteristics of the second system current activity in the second frequency band, - said serving node adjusting the bandwidth used by said node for communication with at least one mobile terminal served by said node, based on said characteristics, such that interference to the second frequency band, from radio communication associated with the node, is adapted to the second system activity in said second frequency band, - providing information related to the bandwidth adjustment to at least one mobile terminal served by the node, thus enabling continued service of said at least one mobile terminal, wherein the information related to the bandwidth adjustment comprises an indicator of an allowed measurement bandwidth, selected based on the adjusted bandwidth, for the mobile terminal, the indicator comprising a delta indicating that a number of resource blocks at an edge of a measurement bandwidth are not included in the allowed measurement bandwidth. - detecting activity of the second system in the second frequency band, - determining characteristics of the second system current activity in the second frequency band, - said serving node adjusting the bandwidth used by said node for communication with at least one mobile terminal served by said node, based on said characteristics, such that interference to the second frequency band, from radio communication associated with the node, is adapted to the second system activity in said second frequency band, - providing information related to the bandwidth adjustment to at least one mobile terminal served by the node, thus enabling continued service of said at least one mobile terminal,
Method of producing polymeric microcapsules containing a probiotic which is protective against mould and mycotoxin formation, characterized in that it comprises the procedure steps of; - Dissolving the alginate in water which is between 0,002- 0,1% ratio by weight, - Autoclaving the alginate solution at 110-130°C temperature, preferably at 121°C and then sterilizing the same, - Mixing the probiotics with alginate, - Adding calcium chloride (CaCl 2) between 0,01-1 M, preferably 0,1 M to the probiotic-alginate mix and stirring, - Dissolving chitosan in 0,25-3% concentration by weight in 0.5-5% organic acid by volume, - Autoclaving chitosan solution at 110-130°C temperature, and then sterilizing the same, - Thereafter, combining the 3:1 chitosan solution and the alginate-calcium chloride (CaCl 2) solution containing the probiotics in a container dropwise, - Adding tween 80 (Polysorbate 80) between 0.01-2% by volume and stirring the mix until homogenization is obtained. - Dissolving the alginate in water which is between 0,002- 0,1% ratio by weight, - Autoclaving the alginate solution at 110-130°C temperature, preferably at 121°C and then sterilizing the same, - Mixing the probiotics with alginate, - Adding calcium chloride (CaCl 2) between 0,01-1 M, preferably 0,1 M to the probiotic-alginate mix and stirring, - Dissolving chitosan in 0,25-3% concentration by weight in 0.5-5% organic acid by volume, - Autoclaving chitosan solution at 110-130°C temperature, and then sterilizing the same, - Thereafter, combining the 3:1 chitosan solution and the alginate-calcium chloride (CaCl 2) solution containing the probiotics in a container dropwise, - Adding tween 80 (Polysorbate 80) between 0.01-2% by volume and stirring the mix until homogenization is obtained.
Method for determining a gas volume of a pre-filled syringe which comprises the steps of: - providing a small tube with a volume scale which is closed at one end with a septum, - filling the small tube with a liquid, - perforating the septum with the pre-filled syringe, - transferring the gas volume contained in the pre-filled syringe to the small tube, wherein the gas volume is enclosed between at least two liquid phases, - reading the gas volume in the volume scale. - providing a small tube with a volume scale which is closed at one end with a septum, - filling the small tube with a liquid, - perforating the septum with the pre-filled syringe, - transferring the gas volume contained in the pre-filled syringe to the small tube, wherein the gas volume is enclosed between at least two liquid phases, - reading the gas volume in the volume scale.
A process of manufacturing (6R,10R)-6,10,14-trimethylpentadecan-2-one in a multistep synthesis from 3,7-dimethyloct-2-enal or 3,7-dimethylocta-2,6-dienal comprising the steps a) providing a mixture of -3,7-dimethyloct-2-enal and -3,7-dimethyloct-2-enal or a mixture of -3,7-dimethylocta-2,6-dienal and -3,7-dimethylocta-2,6-dienal; b) separating one isomer of 3,7-dimethyloct-2-enal or 3,7-dimethylocta-2,6-dienal from the mixture of step a) c) asymmetric hydrogenation using molecular hydrogen in the presence of a chiral iridium complex and yielding -3,7-dimethyloctanal; d) chemically transforming -3,7-dimethyloctanal to a mixture of (R,E)-6,10,14-trimethylpentadec-5-en-2-one and (R,Z)-6,10,14-trimethylpentadec-5-en-2-one; e) separating one isomer of -6,10,14-trimethylpentadec-5-en-2-one from the mixture obtained in step d) f) asymmetric hydrogenation using molecular hydrogen in the presence of a chiral iridium complex and yielding (6R,10R)-6,10,14-trimethylpentadecan-2-one; wherein the steps a)-f) are in the order a,b,c,d,e,f. a) providing a mixture of -3,7-dimethyloct-2-enal and -3,7-dimethyloct-2-enal or a mixture of -3,7-dimethylocta-2,6-dienal and -3,7-dimethylocta-2,6-dienal; b) separating one isomer of 3,7-dimethyloct-2-enal or 3,7-dimethylocta-2,6-dienal from the mixture of step a) c) asymmetric hydrogenation using molecular hydrogen in the presence of a chiral iridium complex and yielding -3,7-dimethyloctanal; d) chemically transforming -3,7-dimethyloctanal to a mixture of (R,E)-6,10,14-trimethylpentadec-5-en-2-one and (R,Z)-6,10,14-trimethylpentadec-5-en-2-one; e) separating one isomer of -6,10,14-trimethylpentadec-5-en-2-one from the mixture obtained in step d) f) asymmetric hydrogenation using molecular hydrogen in the presence of a chiral iridium complex and yielding (6R,10R)-6,10,14-trimethylpentadecan-2-one;
A method for manufacturing an arrangement with a component on a carrier substrate, wherein the method comprises the following steps: - manufacturing spacer elements on the rear side of a cover substrate, wherein the following steps are here provided: - providing a substrate, - creating one or more recesses in the region of a selected surface of the substrate, - placing the cover substrate on the selected surface of the substrate so as to form at least one recessed cavity, and - forming separate spacer elements which together with the cover substrate delimit at least one cavity that is open in the region of the opposing surface of the substrate, - placing a component on a cover surface of a carrier substrate, and - placing the spacer elements formed on the cover substrate on the carrier substrate in such manner that the component is arranged in the at least one cavity and said cavity is closed, characterised in that - the separated spacer elements are formed when the substrate is thinned back starting from a surface of the the substrate opposite to the selected surface in such manner that the at least one recessed cavity is opened, and - a contour of the spacer elements facing the cavity is formed by carrying out partial contouring both when the one or more recesses are formed and when the substrate is thinned back. - manufacturing spacer elements on the rear side of a cover substrate, wherein the following steps are here provided: - providing a substrate, - creating one or more recesses in the region of a selected surface of the substrate, - placing the cover substrate on the selected surface of the substrate so as to form at least one recessed cavity, and - forming separate spacer elements which together with the cover substrate delimit at least one cavity that is open in the region of the opposing surface of the substrate, - providing a substrate, - creating one or more recesses in the region of a selected surface of the substrate, - placing the cover substrate on the selected surface of the substrate so as to form at least one recessed cavity, and - forming separate spacer elements which together with the cover substrate delimit at least one cavity that is open in the region of the opposing surface of the substrate, - placing a component on a cover surface of a carrier substrate, and - placing the spacer elements formed on the cover substrate on the carrier substrate in such manner that the component is arranged in the at least one cavity and said cavity is closed, - the separated spacer elements are formed when the substrate is thinned back starting from a surface of the the substrate opposite to the selected surface in such manner that the at least one recessed cavity is opened, and - a contour of the spacer elements facing the cavity is formed by carrying out partial contouring both when the one or more recesses are formed and when the substrate is thinned back.
A method for measuring phosphoric acid in a test sample by subjecting the phosphoric acid in the test sample to one or more enzyme reactions including an enzyme reaction using a dehydrogenase as the final enzyme reaction; carrying out the enzyme cycling reaction shown in the following reaction scheme: wherein A1 is a thio-NADP, a thio-NAD, an NADP or an NAD, A2 is a reduced product of A1, B1 is a reduced NADP or a reduced NAD in the case of A1 being the thio-NADP or the thio-NAD and is a reduced thio-NADP or a reduced thio-NAD in the case of A1 being the NADP or the NAD, and B2 is an oxidized product of B1, as the enzyme reaction using a dehydrogenase, to form a product Z; and measuring the amount of A2 or B1 which is varied by this reaction, to measure the phosphoric acid in the test sample, which method is characterized in that before the treatment of the phosphoric acid in the test sample with a reagent for carrying out the above-mentioned one or more enzyme reactions, free phosphoric acid present in the components of the reagent is previously removed.
A method for operating a terminal in a wireless communication system, the method comprising: receiving, from a first base station, an adjustment message including a first timing advance, TA, value, and an uplink transmission command message including information on a first difference between transmission timings of downlink symbols from the first base station and a second base station, and a beam training parameter for transmitting an uplink signal; and transmitting, to the second base station, the uplink signal including a beam training signal based on the beam training parameter and a second TA value for the second base station, wherein the second TA value is determined by the terminal based on the first TA value, the first difference between the transmission timings and a second difference between reception timings of downlink signals received from the first base station and the second base station, wherein the beam training parameter includes at least one of information on a sequence for the beam training signal or information of a resource of the beam training signal. receiving, from a first base station, an adjustment message including a first timing advance, TA, value, and an uplink transmission command message including information on a first difference between transmission timings of downlink symbols from the first base station and a second base station, and a beam training parameter for transmitting an uplink signal; and transmitting, to the second base station, the uplink signal including a beam training signal based on the beam training parameter and a second TA value for the second base station, wherein the second TA value is determined by the terminal based on the first TA value, the first difference between the transmission timings and a second difference between reception timings of downlink signals received from the first base station and the second base station, wherein the beam training parameter includes at least one of information on a sequence for the beam training signal or information of a resource of the beam training signal.
Cooker comprising: - a chamber for cooking a grain-based foodstuff, in particular rice, - an analysis chamber, distinct from the cooking chamber, for receiving a sample of the foodstuff, - means for analysing at least one property of the foodstuff received in the analysis chamber, characterised by the fact that the analysis chamber is of a volume less than that of the cooking chamber. - a chamber for cooking a grain-based foodstuff, in particular rice, - an analysis chamber, distinct from the cooking chamber, for receiving a sample of the foodstuff, - means for analysing at least one property of the foodstuff received in the analysis chamber, characterised by the fact that the analysis chamber is of a volume less than that of the cooking chamber.
A peptide composed of an amino acid sequence represented by general formula shown below: X 11 -(Y 11 -X 12) n11 (wherein in general formula, X 11 is a peptide residue composed of an amino acid sequence of (a) or (b) below: (a) an amino acid sequence represented by SEQ ID NO: 1, (b) an amino acid sequence in which the lysine first from the N-terminus of SEQ ID NO: 1 has been substituted with glycine, alanine, arginine, histidine, serine or threonine; Y 11 is a peptide linker composed of an amino acid residue of at least 1 but not more than 5 amino acids, wherein each amino acid residue is independently a glycine residue, a proline residue, a serine residue, a cysteine residue, or a lysine residue; X 12 is either a peptide residue composed of an amino acid sequence of (a) or (b) above, or a retro-inverso peptide residue thereof; and n11 represents an integer of at least 0 but not more than 2.) (a) an amino acid sequence represented by SEQ ID NO: 1, (b) an amino acid sequence in which the lysine first from the N-terminus of SEQ ID NO: 1 has been substituted with glycine, alanine, arginine, histidine, serine or threonine; Y 11 is a peptide linker composed of an amino acid residue of at least 1 but not more than 5 amino acids, wherein each amino acid residue is independently a glycine residue, a proline residue, a serine residue, a cysteine residue, or a lysine residue; X 12 is either a peptide residue composed of an amino acid sequence of (a) or (b) above, or a retro-inverso peptide residue thereof; and n11 represents an integer of at least 0 but not more than 2.)