mhurhangee/patent-ind-claim-en huggingface dataset:
A DC distance protection controller , for identifying a fault within a protection zone extending between a first terminal with which the protection controller is in use operatively associated and a set point along a DC power transmission conduit lying between the first terminal and a second terminal within a DC electrical power network , the protection controller being programmed to: (i) periodically obtain as respective sampled pairs a measured voltage value (u m ) and a measured current value (i m ) of the DC power transmission conduit at the first terminal ; characterised in that the protection controller being programmed to: (ii) isolate in respect of each sampled pair , a fault component voltage value (Δu m ) from the corresponding measured voltage value (u m ) and a fault component current value (Δi m ) from the corresponding measured current value (i m ) to define a respective corresponding isolated pair ; (iii) calculate from each isolated pair of fault component voltage and current values (Δu m , Δi m ) a fault component operating voltage (Δu op ) of the DC power transmission conduit at the set point along the DC power transmission conduit ; (iv) compare a given calculated fault component operating voltage (Δu op ) with a historical voltage value (u h ) derived from a historical measured voltage value (u m' ) from an earlier sampled pair of measured voltage and current values (u m , i m ); and (v) identify a fault within the protection zone when the given calculated fault component operating voltage (Δu op ) is greater than the historical voltage value (u m' ) with which it is compared. (i) periodically obtain as respective sampled pairs a measured voltage value (u m ) and a measured current value (i m ) of the DC power transmission conduit at the first terminal ; (ii) isolate in respect of each sampled pair , a fault component voltage value (Δu m ) from the corresponding measured voltage value (u m ) and a fault component current value (Δi m ) from the corresponding measured current value (i m ) to define a respective corresponding isolated pair ; (iii) calculate from each isolated pair of fault component voltage and current values (Δu m , Δi m ) a fault component operating voltage (Δu op ) of the DC power transmission conduit at the set point along the DC power transmission conduit ; (iv) compare a given calculated fault component operating voltage (Δu op ) with a historical voltage value (u h ) derived from a historical measured voltage value (u m' ) from an earlier sampled pair of measured voltage and current values (u m , i m ); and (v) identify a fault within the protection zone when the given calculated fault component operating voltage (Δu op ) is greater than the historical voltage value (u m' ) with which it is compared.
A collector for collecting fluid from a subject , the collector comprising: a housing including a base having an opening extending therethrough, wherein the base is configured to be positioned against a skin surface of the subject ; an actuator movable relative to the housing in a direction toward the base ; a rotatable platform movable between a ready position and a position that cannot be re-actuated, wherein the rotatable platform is operably coupled to the actuator in the ready position, and wherein the rotatable platform is decoupled from the actuator in the position that cannot be re-actuated; and a lancet positioned between the rotatable platform and the base , wherein movement of the actuator in the direction toward the base drives the rotatable platform to (a) move in the ready position in the direction toward the base to move the lancet through the opening in the base and (b) rotate relative to the housing to the position that cannot be re-actuated to inhibit further movement of the actuator from moving the lancet in the direction toward the base . a housing including a base having an opening extending therethrough, wherein the base is configured to be positioned against a skin surface of the subject ; an actuator movable relative to the housing in a direction toward the base ; a rotatable platform movable between a ready position and a position that cannot be re-actuated, wherein the rotatable platform is operably coupled to the actuator in the ready position, and wherein the rotatable platform is decoupled from the actuator in the position that cannot be re-actuated; and a lancet positioned between the rotatable platform and the base , wherein movement of the actuator in the direction toward the base drives the rotatable platform to (a) move in the ready position in the direction toward the base to move the lancet through the opening in the base and (b) rotate relative to the housing to the position that cannot be re-actuated to inhibit further movement of the actuator from moving the lancet in the direction toward the base .
Method for producing a steel tube comprising the manufacturing of a steel tube with an inner tube wall , an outer tube wall, and a free tube cross section enclosed by the inner tube wall , wherein after the manufacturing, the steel tube comprises at least one contaminant on the inner tube wall ,and wherein after the manufacturing of the steel tube , the inner tube wall is cleaned, characterized in that cleaning comprises the steps of: connecting a first end of the steel tube to an outlet nozzle or opening for liquid or solid CO 2 , introducing the liquid or solid CO 2 into the free tube cross section , and applying the liquid or solid CO 2 onto the inner tube wall in order to remove the contaminant from the inner tube wall , wherein the liquid or solid CO 2 is introduced from the first end of the steel tube into the free tube cross section . connecting a first end of the steel tube to an outlet nozzle or opening for liquid or solid CO 2 , introducing the liquid or solid CO 2 into the free tube cross section , and applying the liquid or solid CO 2 onto the inner tube wall in order to remove the contaminant from the inner tube wall , wherein the liquid or solid CO 2 is introduced from the first end of the steel tube into the free tube cross section .
A high-pressure fuel supply pump, comprising a metal pump body forming a pressurizing chamber , wherein the pump body is made of a steel material containing 12% to 18% of Cr and 3% to 7% of Ni, wherein the pump body is formed such that an outer peripheral portion has a substantially cylindrical shape, characterized in that the pump body and flange portions to be attached to an engine are integrally molded by forging with the same member, the flange portions are formed by spaces , recessed inward with respect to an outermost peripheral end portion of the outer peripheral portion , and the pump body has a forging surface on a part of its outer peripheral surface. wherein the pump body is made of a steel material containing 12% to 18% of Cr and 3% to 7% of Ni, wherein the pump body is formed such that an outer peripheral portion has a substantially cylindrical shape, characterized in that the pump body and flange portions to be attached to an engine are integrally molded by forging with the same member, the flange portions are formed by spaces , recessed inward with respect to an outermost peripheral end portion of the outer peripheral portion , and the pump body has a forging surface on a part of its outer peripheral surface.
A method for measuring the amount of the human Progesterone Receptor (PR) protein in a biological sample of formalin-fixed tissue, comprising detecting and quantifying the amount of an PR fragment peptide in a protein digest prepared from said biological sample using mass spectrometry; and calculating the amount of PR protein in said sample; wherein said PR fragment peptide is selected from the group consisting of a PR fragment peptide of SEQ ID NO: 4 and a PR fragment peptide of SEQ ID NO: 5; and wherein the amount is a relative amount or an absolute amount.
A system operable to control policy distribution with partial evaluation in order to permit/deny access to a protected means having access control policy functions, said system comprising a storing means operable to store all access control policy functions for all protected means , a guard means operable to guard access to a protected means and to construct an access control request comprising attributes regarding said protected means , a policy decision means connected to said guard means and operable to receive said access control request from said guard means , wherein said system also comprises a policy distribution means connected to said storing means , and to said policy decision means , wherein said policy decision means also is operable to collect static attributes of said protected means , and to send said static attributes to said policy distribution means , which in turn is operable to construct a partial access control request from said static attributes of said protected means , and to perform partial evaluation against the access control policy function stored in said storing means based on said partial access control request, resulting in a simplified access control policy function, wherein said policy distribution means is operable to send said simplified access control policy function to said policy decision means , which in turn is operable to use said simplified access control policy function to evaluate access control requests regarding said protected means , and to return a permit/deny response to said guard means .
A thermal analysis device comprising a sample holder and a holding device with a support surface for the sample holder , to which at least one temperature detection means is assigned, wherein the support surface and/or the sample holder comprise elevations or depressions forming contact points , which define a relevant heat flow zone assigned to the support surface , and wherein a temperature detection region of the temperature detection means is arranged within the relevant heat flow zone, characterised in that the support surface itself is constituted as the temperature detection means , wherein the temperature detection means is constituted as a thermocouple comprising two elements (A, B) made of different metals and an interface of the two elements (A, B) forms the temperature detection region.
A system for climate control in closed or semi closed spaces, comprising an air conditioning unit for air filtering, cooling and de-humidification and heating, a heat pump , and a unit for capturing CO 2 from ambient air, wherein said unit for capturing CO 2 from ambient air comprises two process units , characterized in that said process units are capable of adsorbing and desorbing CO 2 on an adsorbent, and working alternately in adsorbing and desorbing mode.
Piston of a hydraulic piston machine comprising a piston shaft , a ball head at one end of the piston shaft , and a slider shoe mounted to the ball head , wherein the ball head comprises a through channel , the slider shoe comprises an end surface and a through hole in communication with an end of the through channel , and a plastic material is arranged in a gap between the slider shoe and the ball head and forms an inner coating of the through hole , characterized in that a sealing surface is arranged at the end of the through channel , wherein the sealing surface surrounds the opening of the through channel into the through bore and an inner diameter of the sealing surface is smaller than an inner diameter of the inner coating of the through bore at the end of the through bore adjacent the sealing surface .
Screw part with an annular cross-section, in particular a hollow screw or a nut, comprising a base element which is hollow cylindrical and at least partially injection-molded from a plasticized polymeric mass containing fibers, the base element having at least one internal thread and/or one external thread and an internal channel for arranging and/or passing through a conduit system element in an insertion direction (E), wherein the inner channel has formed at least one sealing section for arranging a circumferential seal for sealing between the inner channel and the conduit system element and/or at least one support section for supporting and/or guiding the conduit system element and/or at least one retaining section for directly or indirectly arresting the conduit system element characterized in that an insertion sleeve is arranged in the base element coaxially with the inner channel , which insertion sleeve is at least partially encapsulated by the polymeric mass , so that the insertion sleeve is at least partially surrounded by the polymeric mass radially facing towards the inner channel and radially away from the inner channel and that the insertion sleeve has at least at one axial end at least two, preferably three or more webs distributed over the circumference of the insertion sleeve .
A luminaire with a luminaire housing , in which an LED assembly is mounted wherein the LED assembly is held in the luminaire housing by means of a support element , wherein the support element spans the LED assembly and is supported on the luminaire housing , and the support element has, on a side facing the LED assembly , a plurality of spring elements which apply an elastic force which acts directly or indirectly on the LED assembly in order to hold it in the luminaire housing , characterized in that in that the support element spans the LED assembly with a web and is supported on the luminaire housing with at least two support points, the plurality of spring elements being provided on the web of the support element on the side facing the LED assembly .
A method for forming sealed partially-filled packages filled with a pourable product comprising at least the steps of: - forming a tube from a web of packaging material; - filling the pourable product into the tube for forming a product column within the tube ; - directing a sterile gas into the product column for forming and/or maintaining a gas cushion within the product column ; - forming and transversally sealing the tube , for obtaining the packages containing the pourable product and a gas space formed from a defined volume of the sterile gas originating from the gas cushion , characterized in that it further comprises the steps of: - detecting and/or determining an elevation level of the product column ; - controlling the pressure of the sterile gas as a function of the elevation level; wherein the step of forming and transversally sealing the tube comprises the step of transversally sealing the tube through a portion of the gas cushion for obtaining the gas space in the packages . - forming a tube from a web of packaging material; - filling the pourable product into the tube for forming a product column within the tube ; - directing a sterile gas into the product column for forming and/or maintaining a gas cushion within the product column ; - forming and transversally sealing the tube , for obtaining the packages containing the pourable product and a gas space formed from a defined volume of the sterile gas originating from the gas cushion , characterized in that it further comprises the steps of: - detecting and/or determining an elevation level of the product column ; - controlling the pressure of the sterile gas as a function of the elevation level; wherein the step of forming and transversally sealing the tube comprises the step of transversally sealing the tube through a portion of the gas cushion for obtaining the gas space in the packages .
An Optical Coherence Tomography (OCT) data acquisition and processing circuit for use in producing an OCT image based on a swept-source OCT interference signal , the OCT data acquisition and processing circuit comprising: a k-clock configured to selectively output a k-clock signal at any of a plurality of k-clock frequencies ranging from a minimum k-clock frequency to a maximum k-clock frequency; an anti-aliasing filter configured to filter the swept-source OCT interference signal, to produce a filtered OCT interference signal, the anti-aliasing filter having a cut-off frequency greater than one-half the minimum k-clock frequency but less than the minimum k-clock frequency; and an analog-to-digital (A/D) converter circuit coupled to an output of the anti-aliasing filter and configured to sample the filtered OCT interference signal at twice the k-clock frequency, to produce a sampled OCT interference signal. a k-clock configured to selectively output a k-clock signal at any of a plurality of k-clock frequencies ranging from a minimum k-clock frequency to a maximum k-clock frequency; an anti-aliasing filter configured to filter the swept-source OCT interference signal, to produce a filtered OCT interference signal, the anti-aliasing filter having a cut-off frequency greater than one-half the minimum k-clock frequency but less than the minimum k-clock frequency; and an analog-to-digital (A/D) converter circuit coupled to an output of the anti-aliasing filter and configured to sample the filtered OCT interference signal at twice the k-clock frequency, to produce a sampled OCT interference signal.
Composition of a feed additive for animals characterised in that the feed additive contains: - metallic iron in the form of nanoparticles that are smaller than 300 nm; and - at least one glycerol derivative. - metallic iron in the form of nanoparticles that are smaller than 300 nm; and - at least one glycerol derivative.
A memory device which is a solid state drive, SSD, comprising: an enclosure assembly ; and a memory module disposed within the enclosure assembly , the memory module comprising a module board (BDH) and a memory connector (MCN) on one side of the module board (BDH); wherein the enclosure assembly comprises a first enclosure above the memory module , and a second enclosure below the memory module , wherein the first enclosure comprises a first main cover (CVU) that covers upper faces (UF) of the module board (BDH) and the memory connector (MCN), wherein at least one clamping hole (CLH) penetrates the first main cover (CVU) at a position overlapping the memory connector (MCN), wherein the at least one clamping hole (CLH) provides a space for a hook of a host connector to be inserted when connected to the host connector 200; characterized in that the first enclosure includes an inter-device fastening pillar (DL1 - DL3) that protrudes downward from a lower face (BF) of the first main cover (CVU), and wherein a fixed hole (DH1 - DH3) extends through the inter-device fastening pillar (DL1 - DL3) and the first main cover (CVU) to accommodate a device screw for fixing the memory device to the host connector when connected to the host connector. an enclosure assembly ; and a memory module disposed within the enclosure assembly , the memory module comprising a module board (BDH) and a memory connector (MCN) on one side of the module board (BDH); wherein the enclosure assembly comprises a first enclosure above the memory module , and a second enclosure below the memory module , wherein the first enclosure comprises a first main cover (CVU) that covers upper faces (UF) of the module board (BDH) and the memory connector (MCN), wherein at least one clamping hole (CLH) penetrates the first main cover (CVU) at a position overlapping the memory connector (MCN), wherein the at least one clamping hole (CLH) provides a space for a hook of a host connector to be inserted when connected to the host connector 200; characterized in that the first enclosure includes an inter-device fastening pillar (DL1 - DL3) that protrudes downward from a lower face (BF) of the first main cover (CVU), and wherein a fixed hole (DH1 - DH3) extends through the inter-device fastening pillar (DL1 - DL3) and the first main cover (CVU) to accommodate a device screw for fixing the memory device to the host connector when connected to the host connector.
Method for detecting objects in a detection range in the environment of a vehicle using an ultrasound measuring system and for performing a self-test of an ultrasound receiving element of the ultrasound measuring system, the ultrasound measuring system comprising, in addition to the ultrasound receiving system arranged on the vehicle, an ultrasound transmitting element also arranged on the vehicle at a known distance from the ultrasound receiving element, wherein in the method - an ultrasound measuring signal is emitted by means of an ultrasound transmitting element during a measuring cycle so as to detect objects in the detection range , - the ultrasound receiving element performs a self-test within a time interval within which the measuring signal emitted by the ultrasound transmitting element has not yet reached the ultrasound receiving element , said interval being defined by the propagation speed of ultrasound signals and the distance between the ultrasound transmitting element and the ultrasound receiving element and starting with the emission of the ultrasound measuring signal, and - the self-test is terminated or aborted at the end of the time interval at the latest. - an ultrasound measuring signal is emitted by means of an ultrasound transmitting element during a measuring cycle so as to detect objects in the detection range , - the ultrasound receiving element performs a self-test within a time interval within which the measuring signal emitted by the ultrasound transmitting element has not yet reached the ultrasound receiving element , said interval being defined by the propagation speed of ultrasound signals and the distance between the ultrasound transmitting element and the ultrasound receiving element and starting with the emission of the ultrasound measuring signal, and - the self-test is terminated or aborted at the end of the time interval at the latest.