mhurhangee/ep-ind-claims huggingface dataset:
A method of cleaning a passage associated with a mold component that, during a molding configuration in use, allows the passage of fluid and prevents passage of melt, the method comprising, at a certain number of molding cycles where residue has accumulated onto at least a portion of the passage, executing a cleaning operation by means of entering the mold component into a cleaning configuration, whereby a portion of the passage associated with the mold component that accumulates residue becomes part of a molding surface; executing a molding cycle to fill in the portion of the passage with molding material for incorporation and removal of the residue therefrom; and controlling a melt front of the melt entering the passage in the cleaning configuration; the method being characterized by controlling the melt front of the melt entering the passage in the cleaning configuration to stop at a predefined point, wherein the predefined point for the melt front is executed as a thermal implementation by controlling the temperature or rate of a cooling fluid around the predefined point for the melt front stop to effectively freeze off the melt. entering the mold component into a cleaning configuration, whereby a portion of the passage associated with the mold component that accumulates residue becomes part of a molding surface; executing a molding cycle to fill in the portion of the passage with molding material for incorporation and removal of the residue therefrom; and controlling a melt front of the melt entering the passage in the cleaning configuration; the method being characterized by controlling the melt front of the melt entering the passage in the cleaning configuration to stop at a predefined point, wherein the predefined point for the melt front is executed as a thermal implementation by controlling the temperature or rate of a cooling fluid around the predefined point for the melt front stop to effectively freeze off the melt.
A method for wireless communications by a user equipment, UE, comprising: determining whether a control resource set, coreset, of time and frequency resources within a control region of system bandwidth, conveys a physical downlink control channel, PDCCH, transmitted by a base station, BS, (110a, 110b, 110c, 1 10x, 110y, 1 10z), via a single-carrier waveform or a multicarrier waveform, wherein coexistence of coresets with different waveforms, single-carrier or multicarrier, is configured in the downlink; and processing the PDCCH according to the determination.
A transparent layered element having two smooth outer main surfaces (2A, 4A), characterized in that it comprises: - two outer layers (2, 4), which each form one of the two outer main surfaces (2A, 4A) of the layered element and which are constituted of dielectric materials having substantially the same refractive index (n2, n4), and - a central layer inserted between the outer layers, this central layer being formed either by a single layer which is a dielectric layer having a refractive index different from that of the outer layers or a metal layer, or by a stack of layers (3 1, 3 2,..., 3 k) which comprises at least one dielectric layer having a refractive index different from that of the outer layers or a metal layer, where each contact surface (S 0, S 1,..., S k) between two adjacent layers of the layered element which are one a dielectric layer and the other a metal layer, or which are two dielectric layers having different refractive indices, is textured and parallel to the other textured contact surfaces between two adjacent layers which are one a dielectric layer and the other a metal layer or which are two dielectric layers having different refractive indices, characterized in that the or each constituent layer of the central layer is a layer deposited by sputtering onto a textured surface. - two outer layers (2, 4), which each form one of the two outer main surfaces (2A, 4A) of the layered element and which are constituted of dielectric materials having substantially the same refractive index (n2, n4), and - a central layer inserted between the outer layers, this central layer being formed either by a single layer which is a dielectric layer having a refractive index different from that of the outer layers or a metal layer, or by a stack of layers (3 1, 3 2,..., 3 k) which comprises at least one dielectric layer having a refractive index different from that of the outer layers or a metal layer,
An impact tightening tool, comprising a rotating part, angular acceleration detection means, torque value calculation means, and a storage section, wherein: the rotating part includes a rotary power source, an impact tightening generation mechanism, and an output shaft; the angular acceleration detection means is configured to detect an angular acceleration value of the rotary power source; the torque value calculation means is configured to calculate an actual torque approximate value of the output shaft; the torque value calculation means calculates the actual torque approximate value of the output shaft by using an approximation formula stored in the storage section; characterized in that the approximation formula stored in the storage section is a formula which correlates an angular acceleration value detected by the angular acceleration detection means at the time of torque transmission to a screw with an actual torque value of the output shaft at the time of torque transmission to the screw, and is a formula based on a torque measured value of the output shaft measured before the torque transmission to the screw. the rotating part includes a rotary power source, an impact tightening generation mechanism, and an output shaft; the angular acceleration detection means is configured to detect an angular acceleration value of the rotary power source; the torque value calculation means is configured to calculate an actual torque approximate value of the output shaft; the torque value calculation means calculates the actual torque approximate value of the output shaft by using an approximation formula stored in the storage section; characterized in that the approximation formula stored in the storage section is a formula which correlates an angular acceleration value detected by the angular acceleration detection means at the time of torque transmission to a screw with an actual torque value of the output shaft at the time of torque transmission to the screw, and is a formula based on a torque measured value of the output shaft measured before the torque transmission to the screw.
A binding bar syrup composition comprising: allulose; at least one low sugar syrup and optionally an additional syrup; and optionally at least one additional binder ingredient, wherein the binding bar syrup composition has a DP1 + DP2 content less than about 65% and a DP3+ content of greater than about 35%, and, optionally, wherein the composition does not include sucrose or any nutritive sweetener. allulose; at least one low sugar syrup and optionally an additional syrup; and optionally at least one additional binder ingredient, wherein the binding bar syrup composition has a DP1 + DP2 content less than about 65% and a DP3+ content of greater than about 35%, and, optionally, wherein the composition does not include sucrose or any nutritive sweetener.
A composition for use in inhibiting neuronal cell death associated with Alzheimer's disease in a subject, wherein the composition comprises a neuroprotective and/or neurorestorative peptide Y, which is AA (SEQ ID NO:23) or DQ (SEQ ID NO:2), wherein optionally Y is conjugated to Z to form a conjugate Y-Z N, in which Z is lipoic acid and N is 1, 2, or 3, wherein the neuroprotective and/or neurorestorative peptide or peptide conjugate is in an amount effective to inhibit neuronal cell death in the subject.
Electronic assembly, with a printed circuit board, which has a current-conducting current path with two mutually spaced current path ends (6a, 6b), said current path ends (6a, 6b) forming an interruption point, which is bridged as a thermal fuse by means of a contact clip, which is produced in particular without a preload, - wherein the contact clip has a multiple bent, open clip loop as well as a contact limb contacted with both current path ends (6a, 6b) using solder, and a fixing limb with a limb end seated in a printed circuit board opening, - wherein a deformation is being impressed on the contact clip under generation of an internal preload, - wherein bent-up loop sections (12a, 12e) of the clip loop of the contact clip and a middle loop section (12b, 12c, 12d) with at least three bending points (24a, 24b, 24c, 24d) are formed between the contact limb and the fixing limb characterized in that - the limb end of the fixing limb has an oversize with respect to the printed circuit board opening, and - the middle loop section (12b, 12c, 12d) of the clip loop has a larger section width than the contact limb and/or the fixing limb. - wherein the contact clip has a multiple bent, open clip loop as well as a contact limb contacted with both current path ends (6a, 6b) using solder, and a fixing limb with a limb end seated in a printed circuit board opening, - wherein a deformation is being impressed on the contact clip under generation of an internal preload, - wherein bent-up loop sections (12a, 12e) of the clip loop of the contact clip and a middle loop section (12b, 12c, 12d) with at least three bending points (24a, 24b, 24c, 24d) are formed between the contact limb and the fixing limb - the limb end of the fixing limb has an oversize with respect to the printed circuit board opening, and - the middle loop section (12b, 12c, 12d) of the clip loop has a larger section width than the contact limb and/or the fixing limb.
A wellbore logging tool comprising: an assembly for withdrawing formation fluid from a formation; and a flow line for passing the formation fluid through the tool, wherein the flow line comprises a nuclear magnetic resonance probe configured to analyze the formation fluid that passes through the flow line, wherein the NMR probe comprises a housing comprising a fluid inlet, a fluid outlet, a longitudinal axis, and an interior volume that includes a flow path between the fluid inlet and the fluid outlet, wherein the housing is configured to at least partially contain a fluid sample such that the fluid sample flows through the flow path; and an elongated conductor disposed along the longitudinal axis of the housing and within the flow path, wherein the elongated conductor is configured to generate an oscillating electromagnetic field within the interior volume of the housing for exciting nuclear magnetic resonance within the fluid sample. an assembly for withdrawing formation fluid from a formation; and a flow line for passing the formation fluid through the tool, wherein the flow line comprises a nuclear magnetic resonance probe configured to analyze the formation fluid that passes through the flow line, wherein the NMR probe comprises a housing comprising a fluid inlet, a fluid outlet, a longitudinal axis, and an interior volume that includes a flow path between the fluid inlet and the fluid outlet, wherein the housing is configured to at least partially contain a fluid sample such that the fluid sample flows through the flow path; and an elongated conductor disposed along the longitudinal axis of the housing and within the flow path, wherein the elongated conductor is configured to generate an oscillating electromagnetic field within the interior volume of the housing for exciting nuclear magnetic resonance within the fluid sample. a housing comprising a fluid inlet, a fluid outlet, a longitudinal axis, and an interior volume that includes a flow path between the fluid inlet and the fluid outlet, wherein the housing is configured to at least partially contain a fluid sample such that the fluid sample flows through the flow path; and an elongated conductor disposed along the longitudinal axis of the housing and within the flow path, wherein the elongated conductor is configured to generate an oscillating electromagnetic field within the interior volume of the housing for exciting nuclear magnetic resonance within the fluid sample.
Method for retrofitting the ties of two wythes (12, 13) of a wall structure including at least two leaves, of an existing building and in particular for securing facing wythes which are tied inadequately or are at risk of coming off, wherein one wythe serves as an outer wythe and the other wythe, as an inner wythe, and wherein a cavity is formed between the two wythes, and wherein the two wythes are at least partially interconnected by way of a plurality of ties, wherein a plurality of filling holes horizontally and vertically spaced apart from one another are made in at least one of the wythes (12, 13), characterized in that into the cavity provided with the ties, a plastic material is filled through these filling holes, successively, in several filling stages, between the existing outer wythe and the existing inner wythe, permanently interconnecting the outer wythe and the inner wythe, wherein the plastic material is formed by a plastic foam, whose base materials are fed to the cavity, so as to achieve a static re-tying of the outer wythe to the inner wythe. wherein a plurality of filling holes horizontally and vertically spaced apart from one another are made in at least one of the wythes (12, 13), characterized in that into the cavity provided with the ties, a plastic material is filled through these filling holes, successively, in several filling stages, between the existing outer wythe and the existing inner wythe, permanently interconnecting the outer wythe and the inner wythe, wherein the plastic material is formed by a plastic foam, whose base materials are fed to the cavity, so as to achieve a static re-tying of the outer wythe to the inner wythe.
A method for retrieving stem cells from the blood collected from a patient, characterized in that it comprises a preliminary step of pre-treating the blood cells using an oxygen-ozone mixture and a subsequent step of separating the stem cells from said blood cells.
A medical imaging device comprising: a display configured to display a first and a second medical image of an object, the first and second medical images having different modalities from each other; an image processor configured to extract individual anatomical structures corresponding to an object from the first and second medical images, match the first and second medical images using a geometric relationship between the extracted individual anatomical structures, receive a selection of a first object in the first medical image based on a user input and extract a first boundary of the first object, extract a second object corresponding to the first object selected in the first medical image and extract a second boundary of the second object, receive another user input related to one of the first and second boundaries, correct the one of the first and the second boundaries using the another user input, and correct another of the first and the second boundaries based on the corrected boundary using the matching result, extract first feature information including information used for diagnosing the first object by analyzing the first medical image, and extract second feature information including information used for diagnosing the second object by analyzing the second medical image; and a controller configured to generate final diagnostic information of the object based on the first and second feature information, and control the display to display the final diagnostic information. a display configured to display a first and a second medical image of an object, the first and second medical images having different modalities from each other; an image processor configured to extract individual anatomical structures corresponding to an object from the first and second medical images, match the first and second medical images using a geometric relationship between the extracted individual anatomical structures, receive a selection of a first object in the first medical image based on a user input and extract a first boundary of the first object, extract a second object corresponding to the first object selected in the first medical image and extract a second boundary of the second object, receive another user input related to one of the first and second boundaries, correct the one of the first and the second boundaries using the another user input, and correct another of the first and the second boundaries based on the corrected boundary using the matching result, extract first feature information including information used for diagnosing the first object by analyzing the first medical image, and extract second feature information including information used for diagnosing the second object by analyzing the second medical image; and a controller configured to generate final diagnostic information of the object based on the first and second feature information, and control the display to display the final diagnostic information.
A comminuting machine (1, 2, 3) for comminuting material, in particular recyclable materials, scrap wood and data carriers, including a machine frame, at least one comminuting rotor mounted rotatably to the machine frame and a material delivery space, wherein the material delivery space has at least one wall portion, by way of which the material to be comminuted can be fed to the at least one comminuting rotor, and which is stationary in a comminuting mode of operation of the comminuting machine (1, 2, 3) and is pivotable about an axis of rotation in a maintenance mode of operation of the comminuting machine (1, 2, 3), characterised in that the axis of rotation is adapted to be releasably lockable, provided besides said first axis of rotation is at least one second releasably lockable axis of rotation and the at least one wall portion of the material delivery space in the maintenance mode (36, 37) of the comminuting machine (1, 2, 3) is pivotable selectively about the first or the at least one second axis of rotation (8, 9).
A system for intelligent vacuum control (100, 201, 314), the system (100, 201, 314) comprising: a prosthetic socket; an electric vacuum pump (104a, 104b) that creates a sub-atmospheric pressure within the prosthetic socket; one or more sensors that sense an internal pressure of the prosthetic socket and data indicative of relative socket motion of the prosthetic socket; a non-transient computer readable medium comprising program instructions and stiffness data, wherein the stiffness data corresponds to a relationship between pressure variation of the internal pressure of the prosthetic socket and the relative socket motion of the prosthetic socket; and a processor operatively connected to the electric vacuum pump, the one or more sensors, and the non-transient computer readable medium, wherein the processor executes the program instructions to automatically: compare the data indicative of the relative socket motion of the prosthetic socket and the stiffness data; determine a vacuum suspension range based upon the comparison of the data indicative of the relative socket motion of the prosthetic socket and the stiffness data; and actuate the electric vacuum pump, whereby the internal pressure of the prosthetic socket is adjusted to be within the vacuum suspension range. a prosthetic socket; an electric vacuum pump (104a, 104b) that creates a sub-atmospheric pressure within the prosthetic socket; one or more sensors that sense an internal pressure of the prosthetic socket and data indicative of relative socket motion of the prosthetic socket; a non-transient computer readable medium comprising program instructions and stiffness data, wherein the stiffness data corresponds to a relationship between pressure variation of the internal pressure of the prosthetic socket and the relative socket motion of the prosthetic socket; and a processor operatively connected to the electric vacuum pump, the one or more sensors, and the non-transient computer readable medium, wherein the processor executes the program instructions to automatically: compare the data indicative of the relative socket motion of the prosthetic socket and the stiffness data; determine a vacuum suspension range based upon the comparison of the data indicative of the relative socket motion of the prosthetic socket and the stiffness data; and actuate the electric vacuum pump, whereby the internal pressure of the prosthetic socket is adjusted to be within the vacuum suspension range. compare the data indicative of the relative socket motion of the prosthetic socket and the stiffness data; determine a vacuum suspension range based upon the comparison of the data indicative of the relative socket motion of the prosthetic socket and the stiffness data; and actuate the electric vacuum pump, whereby the internal pressure of the prosthetic socket is adjusted to be within the vacuum suspension range.
A sensor strip configured for hemoglobin measurements in a whole blood sample, comprising: a base layer having at least a first electrically conductive layer and a second electrically conductive layer disposed on a surface thereof, characterized in that the sensor strip further comprises a first amount of a reagent composition that includes at least an effective amount of a hemoglobin sensitive redox mediator and an effective amount of a polymer binder, preferably polyethylene oxide, an effective amount of surfactant and at least one buffer in contact with said first electrically conductive layer to define a working electrode and a second amount of a reagent composition that includes an effective amount of a polymer binder, preferably polyethylene oxide, an effective amount of surfactant and at least one buffer in contact with said second electrically conductive layer to define a reference electrode; and a channel providing communication between said first amount and said second amount of reagent composition; wherein said sensor strip is configured to return a measurable electrical signal indicative of the hemoglobin content of a blood sample in response to an independent application of a variable voltage and a constant voltage across said working electrode and said reference electrode when said blood sample is in contact with said first and second amount of reagent composition inside said channel. a base layer having at least a first electrically conductive layer and a second electrically conductive layer disposed on a surface thereof, characterized in that the sensor strip further comprises a first amount of a reagent composition that includes at least an effective amount of a hemoglobin sensitive redox mediator and an effective amount of a polymer binder, preferably polyethylene oxide, an effective amount of surfactant and at least one buffer in contact with said first electrically conductive layer to define a working electrode and a second amount of a reagent composition that includes an effective amount of a polymer binder, preferably polyethylene oxide, an effective amount of surfactant and at least one buffer in contact with said second electrically conductive layer to define a reference electrode; and a channel providing communication between said first amount and said second amount of reagent composition; wherein said sensor strip is configured to return a measurable electrical signal indicative of the hemoglobin content of a blood sample in response to an independent application of a variable voltage and a constant voltage across said working electrode and said reference electrode when said blood sample is in contact with said first and second amount of reagent composition inside said channel.