mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a computer for image analysis, the method comprising: receiving, by a processor of the computer, an image captured by an imaging device; receiving, by the processor of the computer, specified area information specifying first and second areas in the image; determining a first luminance value of the first area and a second luminance value of the second area; determining whether a condition that the first luminance value is smaller than a first threshold and the second luminance value is equal to or larger than a second threshold is satisfied; if the condition is satisfied, extending, by the processor of the computer, detection parameters to be used in detecting a target object, the detection parameters including hue indicating a range of types of color, saturation indicating a range of color saturation, and brightness indicating a range regarding how bright a color is, wherein the range of color saturation is extended from a first range to a second range; and detecting, by the processor of the computer, a target object from the image in accordance with the extended detection parameters. receiving, by a processor of the computer, an image captured by an imaging device; receiving, by the processor of the computer, specified area information specifying first and second areas in the image; determining a first luminance value of the first area and a second luminance value of the second area; determining whether a condition that the first luminance value is smaller than a first threshold and the second luminance value is equal to or larger than a second threshold is satisfied; if the condition is satisfied, extending, by the processor of the computer, detection parameters to be used in detecting a target object, the detection parameters including hue indicating a range of types of color, saturation indicating a range of color saturation, and brightness indicating a range regarding how bright a color is, wherein the range of color saturation is extended from a first range to a second range; and detecting, by the processor of the computer, a target object from the image in accordance with the extended detection parameters.
A voltage-limiting and voltage-stabilizing solid-state diode comprising - a semiconductor substrate having a top side, - two masking regions formed on the top side of the semiconductor substrate and made of a first masking material impermeable to ion implantation, said masking regions comprising two mutually opposite limiting edge portions, - an n-doped cathode region formed in the semiconductor substrate and extending up into the intermediate region between said mutually opposite limiting edge portions of the masking regions, said n-doped cathode region comprising a cathode connection field, and - a p-doped anode region formed in the semiconductor substrate and extending up into the intermediate region between said mutually opposite limiting edge portions of the masking regions and bordering on the cathode region and/or overlapping the same, said p-doped anode region comprising an anode connection field, - wherein the masking regions and either the cathode connection field or the anode connection field are on the same electric potential. - a semiconductor substrate having a top side, - two masking regions formed on the top side of the semiconductor substrate and made of a first masking material impermeable to ion implantation, said masking regions comprising two mutually opposite limiting edge portions, - an n-doped cathode region formed in the semiconductor substrate and extending up into the intermediate region between said mutually opposite limiting edge portions of the masking regions, said n-doped cathode region comprising a cathode connection field, and - a p-doped anode region formed in the semiconductor substrate and extending up into the intermediate region between said mutually opposite limiting edge portions of the masking regions and bordering on the cathode region and/or overlapping the same, said p-doped anode region comprising an anode connection field, - wherein the masking regions and either the cathode connection field or the anode connection field are on the same electric potential.
Fill level measuring device for detecting the mobility of an echo, with the fill level measuring device comprising: an arithmetic unit for determining a first position shift of a first echo of an echo curve, and for determining a second position shift of a second echo of the echo curve; wherein the arithmetic unit is further configured to calculate a mobility value of the second echo of the echo curve with the use of the first position shift; wherein a mobility value of an echo is a characteristic for the echo movement, which characteristic is determined taking into account simultaneously occurring movements or another change of at least one further echo; characterized in that the mobility value is increased, if the second position shift is not equal to zero; the mobility value is reduced, if the second position shift is zero and the first position shift is not equal to zero; at the time point of initialisation of a track a mobility value of 0 is postulated; and the fill level measuring device is configured to assume a pronounced stationarity of a track, to which the second echo is assigned, when the mobility value is negative. an arithmetic unit for determining a first position shift of a first echo of an echo curve, and for determining a second position shift of a second echo of the echo curve; wherein the arithmetic unit is further configured to calculate a mobility value of the second echo of the echo curve with the use of the first position shift; wherein a mobility value of an echo is a characteristic for the echo movement, which characteristic is determined taking into account simultaneously occurring movements or another change of at least one further echo; characterized in that the mobility value is increased, if the second position shift is not equal to zero; the mobility value is reduced, if the second position shift is zero and the first position shift is not equal to zero; at the time point of initialisation of a track a mobility value of 0 is postulated; and the fill level measuring device is configured to assume a pronounced stationarity of a track, to which the second echo is assigned, when the mobility value is negative.
A method for the diagnosis of acute renal damage as a result of ischemic or toxic etiology which comprises determining the expression level of at least miR-26b in a serum or blood sample isolated from a subject and comparing said expression level with a control value, wherein the reduction of said expression level is indicative of acute renal damage as a result of ischemic or toxic etiology.
A method, comprising: receiving, by at least one first processor of a first user equipment, UE, first group information for a user group with user-device members, the first group information including information for mapping a sidelink channel resource for each of the user-device members to perform a groupcast communication over sidelink for the user group, the first UE being a user-device member of the user group; receiving, by the at least one first processor, second group information for transmitting data within the groupcast communication, the second group information including updated information of the first group information that is specific to the first UE; initiating, by the at least one first processor, a first transmission process to transmit a first data block to the user group for the groupcast communication over the sidelink based on the first group information; and adapting, by the at least one first processor, the first transmission process of the first data block based on the second group information; wherein the first transmission process is a hybrid automatic repeat request, HARQ, process over the sidelink. receiving, by at least one first processor of a first user equipment, UE, first group information for a user group with user-device members, the first group information including information for mapping a sidelink channel resource for each of the user-device members to perform a groupcast communication over sidelink for the user group, the first UE being a user-device member of the user group; receiving, by the at least one first processor, second group information for transmitting data within the groupcast communication, the second group information including updated information of the first group information that is specific to the first UE; initiating, by the at least one first processor, a first transmission process to transmit a first data block to the user group for the groupcast communication over the sidelink based on the first group information; and adapting, by the at least one first processor, the first transmission process of the first data block based on the second group information; wherein the first transmission process is a hybrid automatic repeat request, HARQ, process over the sidelink.
A device for culturing and detecting microorganisms, the device comprising: a self-supporting substrate sheet having a first major surface and a second major surface; a cover sheet attached to the substrate sheet; a sample-receiving zone disposed between the substrate sheet and the cover sheet; a first layer comprising a substantially dry, cold-water-soluble first hydrogel-forming composition adhered to the first major surface of the substrate sheet, wherein the first hydrogel-forming composition comprises a gelling agent mixture comprising guar gum and xanthan gum in a mass ratio of 1:1; and a plurality of indicator agents, the plurality of indicator agents comprising: three enzyme activity indicator reagents for detecting distinct glycosidase enzyme activities; an enzyme activity indicator reagent for detecting an alkyl esterase enzyme activity; an enzyme activity indicator reagent for detecting a phosphatase enzyme activity; a redox indicator comprising a tetrazolium dye; wherein each of the plurality of enzyme activity indicator reagents comprises a detectable reporter group; wherein each of the plurality of indicator agents is disposed in at least one layer adhered to the substrate sheet or the cover sheet, wherein the at least one layer is in fluid communication with the sample-receiving zone when a predetermined volume of aqueous liquid is deposited in the sample-receiving zone. a self-supporting substrate sheet having a first major surface and a second major surface; a cover sheet attached to the substrate sheet; a sample-receiving zone disposed between the substrate sheet and the cover sheet; a first layer comprising a substantially dry, cold-water-soluble first hydrogel-forming composition adhered to the first major surface of the substrate sheet, wherein the first hydrogel-forming composition comprises a gelling agent mixture comprising guar gum and xanthan gum in a mass ratio of 1:1; and a plurality of indicator agents, the plurality of indicator agents comprising: three enzyme activity indicator reagents for detecting distinct glycosidase enzyme activities; an enzyme activity indicator reagent for detecting an alkyl esterase enzyme activity; an enzyme activity indicator reagent for detecting a phosphatase enzyme activity; a redox indicator comprising a tetrazolium dye; three enzyme activity indicator reagents for detecting distinct glycosidase enzyme activities; an enzyme activity indicator reagent for detecting an alkyl esterase enzyme activity; an enzyme activity indicator reagent for detecting a phosphatase enzyme activity; a redox indicator comprising a tetrazolium dye; wherein each of the plurality of enzyme activity indicator reagents comprises a detectable reporter group; wherein each of the plurality of indicator agents is disposed in at least one layer adhered to the substrate sheet or the cover sheet, wherein the at least one layer is in fluid communication with the sample-receiving zone when a predetermined volume of aqueous liquid is deposited in the sample-receiving zone.
A method of recovering titanium dioxide and aluminium sulphate from a particulate material, said method comprising perovskite comprising: a. contacting the particulate material comprising perovskite with sulphuric acid and heating to form a sulphated mixture; b. filtering the sulphated mixture to produce a filter cake and a first permeate comprising sulphuric acid; c. contacting the filter cake with water to form a sulphated suspension comprising titanyl sulphate; d. filtering the sulphated suspension to produce a permeate comprising at least titanyl sulphate, and a retentate comprising insoluble residue comprising calcium sulphate; e. contacting the permeate comprising at least titanyl sulphate with water to produce a hydrolysis liquor; f. hydrolysing the titanyl sulphate; g. separating titanium dioxide hydrate from the hydrolysis liquor to produce a permeate comprising aluminium sulphate, and a retentate comprising titanium dioxide hydrate; and h. precipitating aluminium sulphate from the permeate; wherein step h. may be carried out after step d or after step g. a. contacting the particulate material comprising perovskite with sulphuric acid and heating to form a sulphated mixture; b. filtering the sulphated mixture to produce a filter cake and a first permeate comprising sulphuric acid; c. contacting the filter cake with water to form a sulphated suspension comprising titanyl sulphate; d. filtering the sulphated suspension to produce a permeate comprising at least titanyl sulphate, and a retentate comprising insoluble residue comprising calcium sulphate; e. contacting the permeate comprising at least titanyl sulphate with water to produce a hydrolysis liquor; f. hydrolysing the titanyl sulphate; g. separating titanium dioxide hydrate from the hydrolysis liquor to produce a permeate comprising aluminium sulphate, and a retentate comprising titanium dioxide hydrate; and h. precipitating aluminium sulphate from the permeate;
An interception module used in a tokenization system, wherein the tokenization system comprises a source and a target, a common bus architecture, and a plurality of tokenizers, wherein the source and the target, the interception module and the plurality of tokenizers are communicatively coupled via the common bus architecture, the interception module being configured to: • intercept a message transmitted from the source (4, 5) directed to the target (4, 5) via the common bus architecture, and • in response to determining based on indicators in metadata of the message that the message comprises sensitive data, forward the intercepted message to a tokenizer of the plurality of tokenizers for tokenization, wherein forwarding the message to the tokenizer of the plurality of tokenizers is based on a migration state of the source (4, 5) and/or the target (4, 5), wherein the migration state comprises one of the following migration states: fully migrated to a tokenization ready state, partially migrated to a tokenization ready state, and not migrated to a tokenization ready state. • intercept a message transmitted from the source (4, 5) directed to the target (4, 5) via the common bus architecture, and • in response to determining based on indicators in metadata of the message that the message comprises sensitive data, forward the intercepted message to a tokenizer of the plurality of tokenizers for tokenization, wherein forwarding the message to the tokenizer of the plurality of tokenizers is based on a migration state of the source (4, 5) and/or the target (4, 5), wherein the migration state comprises one of the following migration states: fully migrated to a tokenization ready state, partially migrated to a tokenization ready state, and not migrated to a tokenization ready state.
A fingerprint sensor for a display device, having a plurality of photosensors arranged in a matrix, each of the photosensors comprising: a semiconductor film for converting incident light into an electrical signal; and a light shielding film disposed on a lower layer side than the semiconductor film and for blocking incidence of light to the semiconductor film from the lower layer side, characterised in that the light shielding film has four corner portions (C1, C2, C3, C4) in outer contour shape in a top view, wherein each of the corner portions (C1, C2, C3, C4) is rounded to suppress loss of light due to diffraction of light from the lower layer side occurring in an outer peripheral edge portion of the light shielding film. a semiconductor film for converting incident light into an electrical signal; and a light shielding film disposed on a lower layer side than the semiconductor film and for blocking incidence of light to the semiconductor film from the lower layer side, characterised in that the light shielding film has four corner portions (C1, C2, C3, C4) in outer contour shape in a top view, wherein each of the corner portions (C1, C2, C3, C4) is rounded to suppress loss of light due to diffraction of light from the lower layer side occurring in an outer peripheral edge portion of the light shielding film.
Porous body (10, 20) comprising a three-dimensional network of node points joined to one another by struts, and a void volume present between the struts, the struts having an average length of ≥ 200 μm to ≤ 50 mm, the struts having an average thickness of ≥ 100 μm to ≤ 5 mm, and the body having a compression hardness (40% compression, DIN EN ISO 3386-1: 2010-09) in at least one spatial direction of ≥ 10 to ≤ 100 kPa.
Luminaire comprising • a light source having at least one LED, and • a heat sink (6, 6', 6") to cool the LED, wherein the light source is adjustable, in particular rotationally and/or pivotably mounted, by means of an articulation arrangement comprising a support element (10, 10', 10") associated with the light source and a guide element, and wherein the heat sink (6, 6', 6") comprises a recess (13, 13', 13") corresponding to the shape of the support element (10, 10', 10"), and forms the guide element of the articulation arrangement, characterized in that the articulation arrangement comprises a bolt which serves to mount the support element opposite the heat sink. • a light source having at least one LED, and • a heat sink (6, 6', 6") to cool the LED, wherein the light source is adjustable, in particular rotationally and/or pivotably mounted, by means of an articulation arrangement comprising a support element (10, 10', 10") associated with the light source and a guide element, and wherein the heat sink (6, 6', 6") comprises a recess (13, 13', 13") corresponding to the shape of the support element (10, 10', 10"), and forms the guide element of the articulation arrangement, characterized in that the articulation arrangement comprises a bolt which serves to mount the support element opposite the heat sink.
A method that facilitates selecting of a code rate at a wireless terminal for uplink transmission, comprising: receiving, from a first base station, information indicating a base station assigned maximum nominal transmit power for uplink transmission; determining an interference cost at the wireless terminal being a relative path loss ratio equal to a second channel gain of a second channel between the wireless terminal and a second base station divided by a first channel gain of a first channel between the wireless terminal and the first base station; determining a modified maximum transmit power equal to the base station assigned maximum nominal transmit power divided by the determined interference cost; selecting a code rate based at least in part upon the determined modified maximum transmit power and transmitting data to the first base station on an uplink with the selected code rate. receiving, from a first base station, information indicating a base station assigned maximum nominal transmit power for uplink transmission; determining an interference cost at the wireless terminal being a relative path loss ratio equal to a second channel gain of a second channel between the wireless terminal and a second base station divided by a first channel gain of a first channel between the wireless terminal and the first base station; determining a modified maximum transmit power equal to the base station assigned maximum nominal transmit power divided by the determined interference cost; selecting a code rate based at least in part upon the determined modified maximum transmit power and transmitting data to the first base station on an uplink with the selected code rate.
A probe for measuring the local incidence of a flow of fluid along a wall, said probe comprising a probe body (47, 50, 70) that is intended to be attached to said wall and extending in a main direction, about which the incidence can be measured in a range of incidence, at least five pressure taps (41, 42, 43, 44, 45; 51, 52, 53, 54, 55) disposed on a nose of said probe body, said nose being located on one side of said body in relation to a larger section of said body perpendicular to said main direction, said nose forming a surface that is locally perpendicular to the incidence within the range, pressure measurement means associated with said pressure taps (41, 42, 43, 44, 45) and computation means capable of determining an incidence of the flow in relation to said main direction of said probe body as a function of the pressures measured by said pressure measurement means, characterised in that the range of incidence extends on either side of said main direction up to said largest section of said probe body (47, 50, 70), in that said computation means are configured to select pressure taps from said pressure taps (41, 42, 43, 44, 45; 51, 52, 53, 54, 55) that allow the best local incidence measurement accuracy to be obtained and to compute the local incidence in relation to said main direction on the basis of the pressure measurements carried out in the selected pressure taps (44, 45).
A hydraulically controlled pressure switch for thrust reverser systems, comprising a spool having an elongate body with a first end (7'a) and a second end (7'b), and an intermediate part between the two ends defined by opposing inner surfaces of the ends; a control pressure line via which a control pressure acts on an outer surface of the first end (7'a); a return pressure line via which a return pressure acts on the inner surfaces of the two ends at the intermediate part a target movably connected to the second end of the spool by means of a spring; means for detecting movement of the target and providing an indication of pressure acting on the spool based on the movement of the target; whereby the spool is configured to cause movement of the target against the force of the spring based on both the level of control pressure acting against the first end, towards the spring, and also the level of return pressure at the intermediate part between the two ends; and wherein the first and second ends present different areas to the return pressure at the intermediate part.