mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a sensor element for detecting particles of a measurement gas in a measurement gas chamber, wherein the sensor element comprises a carrier and at least one measuring electrode which is connected to a carrier and can be subjected to the measurement gas, wherein the method comprises the following steps: a) carrying out a first regeneration of the sensor element at a first regeneration temperature; subsequently: b) carrying out a first diagnostic measurement at the measuring electrode; an d subsequently: c) carrying out at least one of the following steps as a function of a result of the first diagnostic measurement: c1) outputting a fault message; c2) carrying out a measurement phase for detecting the particles of the measurement gas; or c3) carrying out a second regeneration of the sensor element at a second regeneration temperature, wherein the second regeneration temperature is higher than the first regeneration temperature, characterized in that in method step c) a result of the first diagnostic measurement is compared with a first threshold value; wherein method step c1) is carried out if the result is above the first threshold value, wherein, if the result is below the first threshold value, the result is compared with the second threshold value which is lower than the first threshold value, wherein, if the result is below the second threshold value, method step c2) is carried out, wherein, if the result lies between the first threshold value and the second threshold value, method step c3) is carried out. a) carrying out a first regeneration of the sensor element at a first regeneration temperature; subsequently: b) carrying out a first diagnostic measurement at the measuring electrode; an d subsequently: c) carrying out at least one of the following steps as a function of a result of the first diagnostic measurement: c1) outputting a fault message; c2) carrying out a measurement phase for detecting the particles of the measurement gas; or c3) carrying out a second regeneration of the sensor element at a second regeneration temperature, wherein the second regeneration temperature is higher than the first regeneration temperature, characterized in that in method step c) a result of the first diagnostic measurement is compared with a first threshold value; wherein method step c1) is carried out if the result is above the first threshold value, wherein, if the result is below the first threshold value, the result is compared with the second threshold value which is lower than the first threshold value, wherein, if the result is below the second threshold value, method step c2) is carried out, wherein, if the result lies between the first threshold value and the second threshold value, method step c3) is carried out. c1) outputting a fault message; c2) carrying out a measurement phase for detecting the particles of the measurement gas; or c3) carrying out a second regeneration of the sensor element at a second regeneration temperature,
A bioreactor comprising: a main reactor which is configured as a stirred tank reactor; and a growth reactor continuous with the main reactor and having a configuration which is an unstirred tank reactor, and wherein during operation of the main reactor, the growth reactor is utilized as a gas/liquid disengagement zone which allows gas bubbles to rise from the growth reactor back into the main reactor vessel. a main reactor which is configured as a stirred tank reactor; and a growth reactor continuous with the main reactor and having a configuration which is an unstirred tank reactor, and wherein during operation of the main reactor, the growth reactor is utilized as a gas/liquid disengagement zone which allows gas bubbles to rise from the growth reactor back into the main reactor vessel.
A method for wireless communications, comprising: identifying, at a first access point (105-a), a first attribute value associated with the first access point (105-a), wherein the first attribute value comprises a first BSS color; receiving, at the first access point (105-a), a second attribute value, wherein the received second attribute value comprises a second BSS color; determining, at the first access point, that the first attribute value associated with the first access point is the same as the received second attribute value; detecting, at the first access point, a BSS color collision based at least in part on determining that the first attribute value associated with the first access point is the same as the received second attribute value; and transmitting BSS color collision information to a station served by the first access point (105-a). identifying, at a first access point (105-a), a first attribute value associated with the first access point (105-a), wherein the first attribute value comprises a first BSS color; receiving, at the first access point (105-a), a second attribute value, wherein the received second attribute value comprises a second BSS color; determining, at the first access point, that the first attribute value associated with the first access point is the same as the received second attribute value; detecting, at the first access point, a BSS color collision based at least in part on determining that the first attribute value associated with the first access point is the same as the received second attribute value; and transmitting BSS color collision information to a station served by the first access point (105-a).
A hinge receptacle for installation in door frames, which, for the at least one-dimensional, preferably three-dimensional setting of the position of a frame part of a door hinge or a door leaf arranged thereon, has an internal adjustment unit for the adjustment of the door leaf, having a front plate, a bow fastened thereon, an adjustment plate, a receiving plate, and a clamping plate, which are fastened using clamping screws on the adjustment plate, wherein an adjustment unit having an adjustment disk is penetrated off-center by an adjustment shaft, wherein the adjustment disk acts on at least one or two adjustment pins on the clamping plate or optionally the receptacle plate, characterized in that the adjustment shaft penetrates an opening of the adjustment disk in a formfitting manner so that it is rotatable jointly therewith as a unit, wherein the adjustment disk has an opening having the contour of an internal polygon and the adjustment shaft has a contour of a corresponding external polygon, wherein the adjustment disk is arranged so it is displaceable on the adjustment shaft, wherein the adjustment disk is arranged and designed in relation to the adjustment pins such that, during a rotation of the adjustment shaft, it acts like an adjustment eccentric with its outer peripheral edge on one of the adjustment pins in each case, so that it displaces the unit made of the receiving plate and the clamping plate perpendicularly to the plane of extension of the adjustment shaft.
A method comprising placing curd in a mould, said mould comprising a hollow body provided with a first opening and a second opening, applying a pressure force on said curd such that said curd is transformed into a cheese and such that said cheese is moved towards said second opening, and releasing said cheese from said mould via said second opening, by exerting a releasing force directed towards said second opening on said cheese, which is achieved by - providing for that said hollow body is moving towards said second opening by letting said hollow body fall down, and - stopping said hollow body from moving towards said second opening such that a resulting inertia of said cheese will give rise to said releasing force by providing said hollow body with an outer edge, and having an element capturing said hollow body by using said outer edge. - providing for that said hollow body is moving towards said second opening by letting said hollow body fall down, and - stopping said hollow body from moving towards said second opening such that a resulting inertia of said cheese will give rise to said releasing force by providing said hollow body with an outer edge, and having an element capturing said hollow body by using said outer edge.
Pneumatic vehicle tyre with a tread strip with at least one shoulder-side profile rib which is delimited by a shoulder-side circumferential channel configured at profile depth (T UR) and comprises an inner portion running inside the contact patch, and an outer portion running outside the contact patch, transverse channels which run in the shoulder-side profile rib at least largely in the outer portion being configured with a maximum width (b QR) determined in the circumferential direction of from 2.0 mm to 10.0 mm, a circumferential groove which, in a top view, runs around in a straight line and in the circumferential direction and has a width (b N) of from 0.5 mm to 5.0 mm running in the inner portion, and in each case one sipe which opens into the circumferential groove and has a depth (b E) of from 0.4 mm to 2.0 mm running in the region between adjacent transverse channels in the circumferential direction, characterized in that the sipes have a maximum depth of from 70% to 100% of the profile depth (T UR), in each case one micro-sipe which runs at an angle (λ) of from 5° to 20° with respect to the circumferential direction in a top view and which has a depth of from 0.5 mm to 50% of the profile depth (T UR) and a width (b E) of from 0.4 mm to 2.0 mm being configured between each sipe and an adjacent transverse channel, the ends of the micro-sipe being situated within a spacing (a ME), determined transversely with respect to the circumferential direction, of up to 10.0 mm from the lateral edge of the contact patch. a circumferential groove which, in a top view, runs around in a straight line and in the circumferential direction and has a width (b N) of from 0.5 mm to 5.0 mm running in the inner portion, and in each case one sipe which opens into the circumferential groove and has a depth (b E) of from 0.4 mm to 2.0 mm running in the region between adjacent transverse channels in the circumferential direction, characterized in that the sipes have a maximum depth of from 70% to 100% of the profile depth (T UR), in each case one micro-sipe which runs at an angle (λ) of from 5° to 20° with respect to the circumferential direction in a top view and which has a depth of from 0.5 mm to 50% of the profile depth (T UR) and a width (b E) of from 0.4 mm to 2.0 mm being configured between each sipe and an adjacent transverse channel, the ends of the micro-sipe being situated within a spacing (a ME), determined transversely with respect to the circumferential direction, of up to 10.0 mm from the lateral edge of the contact patch.
System (3, 12, 13) for connection between two longitudinal cylindrical rods for spinal support, comprising at least one transverse elongated element (6, 14) fitted at each of its ends with a head (7, 8; 17, 18; 43) for fixation on a corresponding rod, each of said fixing heads (7, 8; 17, 18) comprising a semi-cylindrical recess for clipping to the rod exhibiting an upper lip (20, 21) fitting on the top of the rod and a lower lip (22, 23) which is radially opposed, said head comprising means for deformation by flexion of said lower lip (22, 23) between a position for connection and a position for locking on the rod, each fixation head (17, 18) being formed of a body comprising on one side the recess and on the other side the means for deformation of the lower lip, the transverse elongated element comprising two limbs (15, 16) each integral with a corresponding head (17, 18) arranged to slide one in relation to the other and means for locking of one of the limbs on the other by a locking screw, said locking screw co-operating with a screw thread belonging to an intermediate head integral with one of the limbs, comprising a recess for passage of the end of the other limb, characterised in that the intermediate head is formed in one piece with one of the two limbs, in that said recess is of substantially oval section or in the form of a squashed circle of greater width than the width of said other limb and allowing a play in the frontal and horizontal planes of the end in relation to said intermediate head, in that the end of the screw exhibits a rounded bottom F bearing on the top of the end of the other limb, for locking said other limb in the recess by screwing of said screw in a threaded hole in the intermediate head on the latter, and in that the means of deformation comprise a split zone comprising a lower tongue integral with the lower lip (22, 23) and separated from the remainder of the body by a slot, said remainder of the body being integral with the elongated element, and means for distancing said tongue from the remainder of the body to deform said lower lip between its position for connection and its position for locking.
An in-vitro method for stratifying an anemia patient who receives treatment with an erythropoiesis Stimulating Agent, wherein the patient is stratified into a high risk or low risk group of experiencing a fatal and/or adverse outcome upon continued treatment with the ESA, the method comprising the steps of: (a) Providing patient samples of the patient from at least two time points, (b) Determining from said samples the individual hemoglobin (Hb) degradation rate [Hb degr] for said patient, (c) Determining from said hemoglobin (Hb) degradation rate [Hb degr] the number of ESA binding sites [EpoR] for said patient, (d) Determining from (i) the individual Hb degradation rate, (ii) the number of ESA binding sites, and (iii) the last ESA dose administered, or ESA dose planned/calculated to be administered, to said patient, an accumulated risk factor [aRF] determined according to the following formula: aRF = B 0 + B 1 ∗ EpoR + B 2 ∗ Hb degr + B 3 ∗ ESA (e) Stratifying the patient into a high risk or low risk group of experiencing an adverse event upon continued treatment with the ESA according to the [aRF], wherein patient is at high risk if the [aRF] is 0.1 or higher. (a) Providing patient samples of the patient from at least two time points, (b) Determining from said samples the individual hemoglobin (Hb) degradation rate [Hb degr] for said patient, (c) Determining from said hemoglobin (Hb) degradation rate [Hb degr] the number of ESA binding sites [EpoR] for said patient, (d) Determining from (i) the individual Hb degradation rate, (ii) the number of ESA binding sites, and (iii) the last ESA dose administered, or ESA dose planned/calculated to be administered, to said patient, an accumulated risk factor [aRF] determined according to the following formula: aRF = B 0 + B 1 ∗ EpoR + B 2 ∗ Hb degr + B 3 ∗ ESA (e) Stratifying the patient into a high risk or low risk group of experiencing an adverse event upon continued treatment with the ESA according to the [aRF], wherein patient is at high risk if the [aRF] is 0.1 or higher.
A method for a wireless communication at a terminal, comprising: receiving higher layer information including resource information indicating a resource for an enhanced physical downlink control channel, ePDCCH, from a base station, the resource being a first resource or a second resource; identifying an antenna port set of a reference signal for receiving control information on the ePDCCH based on the higher layer information, the antenna port set of the reference signal being a first antenna port set for the first resource or a second antenna port set for the second resource, the first antenna port set being different from the second antenna port set; and receiving (809, 803) the control information on the indicated resource using the antenna port set of the reference signal from the base station, and wherein the first resource is for a distributed transmission mode and the second resource is for a localized transmission mode, and wherein the second antenna port set for the second resource is determined based on an identifier of a terminal. receiving higher layer information including resource information indicating a resource for an enhanced physical downlink control channel, ePDCCH, from a base station, the resource being a first resource or a second resource; identifying an antenna port set of a reference signal for receiving control information on the ePDCCH based on the higher layer information, the antenna port set of the reference signal being a first antenna port set for the first resource or a second antenna port set for the second resource, the first antenna port set being different from the second antenna port set; and receiving (809, 803) the control information on the indicated resource using the antenna port set of the reference signal from the base station, and wherein the first resource is for a distributed transmission mode and the second resource is for a localized transmission mode, and wherein the second antenna port set for the second resource is determined based on an identifier of a terminal.
A device for holding and releasing an object, such as a medical implant, characterized in that the device comprises two hook systems (11, 12) to which said object is able to be coupled so as to allow said hook systems (11, 12) to jointly hold said object, said hook systems (11, 12) being configured such that, in the state in which said object is coupled to said hook systems (11, 12), at least one of the hook systems (11, 12) is subjected to a return force (F11, F12) that makes it possible to keep the object coupled to said hook systems (11, 12), characterized in that, each hook system (11, 12) having at least one hook (13, 14) that has a passage through which at least a part of said object is able to extend, said passage of said at least one hook of each hook system (11, 12) having a passage axis along which at least a part of said object is able to extend, said at least one hook of each hook system has a hook opening zone (131, 141, 151) configured so as to allow said object to be released through said hook opening zone (131, 141, 151), by pivoting of said object about an axis (APIV2) orthogonal to the passage axis. characterized in that the device comprises two hook systems (11, 12) to which said object is able to be coupled so as to allow said hook systems (11, 12) to jointly hold said object, said hook systems (11, 12) being configured such that, in the state in which said object is coupled to said hook systems (11, 12), at least one of the hook systems (11, 12) is subjected to a return force (F11, F12) that makes it possible to keep the object coupled to said hook systems (11, 12), characterized in that, each hook system (11, 12) having at least one hook (13, 14) that has a passage through which at least a part of said object is able to extend, said passage of said at least one hook of each hook system (11, 12) having a passage axis along which at least a part of said object is able to extend, said at least one hook of each hook system has a hook opening zone (131, 141, 151) configured so as to allow said object to be released through said hook opening zone (131, 141, 151), by pivoting of said object about an axis (APIV2) orthogonal to the passage axis.
A mixing head apparatus in which two types of chemically reactive fluid component materials (5a, 5b) are expelled into a chamber interior from fine holes respectively provided in side walls of a chamber so that both component materials(5a, 5b) impinge on and mix with each other, wherein a plurality ranging from two to four of fine holes are provided for at least one of the component materials (5a; 5b), center axis lines at distal ends of two or more of these two to four fine holes intersecting with each other in the chamber interior, characterized in that, the fine holes with intersecting center axis lines are adapted to expel jets of the component material (5a, 5b) such that these jets impinge on each other in the chamber interior prior to impingement with the other component material (5b; 5a).
Motor vehicle door lock with a motor vehicle door latch on a motor vehicle door and an interacting latch holder on a motor vehicle chassis, or vice versa, in which a retaining element is provided for which keeps free an inlet aperture for the latch holder in the motor vehicle door latch even in the case of deformations of the motor vehicle door caused by accidents, characterized in that the keeping free by means of the retaining element is achieved by a shape of the retaining element, where the retaining element is executed deflected away in the direction of the inlet opening and has an angle W of greater than 90°, starting from the inlet opening.
A method of recovering oil from oil-producing microorganisms comprising (a) culturing the microorganisms in a fermentation medium; (b) contacting the microorganisms in the fermentation medium with an enzyme under conditions that causes enzymatic hydrolysis of the microorganisms, wherein the contacting step is performed in the presence of 0.001% to 0.4% enzyme (volume to volume) for one to twenty hours at a temperature from 45°C to 70°C, and wherein the hydrolyzed microorganisms comprise the oil; (c) concentrating the hydrolyzed microorganisms comprising the oil by removing 50-95% by volume of the fermentation media from the hydrolyzed microorganisms comprising the oil; (d) extracting the oil from the concentrated hydrolyzed microorganisms of step (c) at a temperature of 55°C to 95°C, in the presence of a salt and less than 0.5% of an organic solvent based on the weight of the disrupted microorganisms, wherein extraction separates the oil from the hydrolyzed microorganisms; and (e) recovering the oil of step (d). (a) culturing the microorganisms in a fermentation medium; (b) contacting the microorganisms in the fermentation medium with an enzyme under conditions that causes enzymatic hydrolysis of the microorganisms, wherein the contacting step is performed in the presence of 0.001% to 0.4% enzyme (volume to volume) for one to twenty hours at a temperature from 45°C to 70°C, and wherein the hydrolyzed microorganisms comprise the oil; (c) concentrating the hydrolyzed microorganisms comprising the oil by removing 50-95% by volume of the fermentation media from the hydrolyzed microorganisms comprising the oil; (d) extracting the oil from the concentrated hydrolyzed microorganisms of step (c) at a temperature of 55°C to 95°C, in the presence of a salt and less than 0.5% of an organic solvent based on the weight of the disrupted microorganisms, wherein extraction separates the oil from the hydrolyzed microorganisms; and (e) recovering the oil of step (d).