mhurhangee/ep-ind-claims huggingface dataset:
A dressing, comprising: a drape sealable over a wound bed; an absorbent layer coupled to the drape and configured to absorb fluid from the wound bed; a manifold layer abutting the absorbent layer, the manifold layer allowing the flow of air and fluid therethrough, the absorbent layer positioned between the manifold layer and the drape; a first opening extending through the drape; a first conduit extending though the absorbent layer and pneumatically communicable with the first opening and the manifold layer; a first filter positioned between the first opening and the first conduit; a connection pad positioned on the drape at the first opening, the connection pad configured to couple a tube to the dressing in pneumatic communication with the first opening, the tube coupled to a pump that provides a negative pressure to the wound bed; and a second opening extending through the drape that allows an airflow from the second opening to the tube via the manifold layer; wherein the absorbent layer is configured to swell to block the airflow from the second opening to the tube when the absorbent layer is full of fluid. a drape sealable over a wound bed; an absorbent layer coupled to the drape and configured to absorb fluid from the wound bed; a manifold layer abutting the absorbent layer, the manifold layer allowing the flow of air and fluid therethrough, the absorbent layer positioned between the manifold layer and the drape; a first opening extending through the drape; a first conduit extending though the absorbent layer and pneumatically communicable with the first opening and the manifold layer; a first filter positioned between the first opening and the first conduit; a connection pad positioned on the drape at the first opening, the connection pad configured to couple a tube to the dressing in pneumatic communication with the first opening, the tube coupled to a pump that provides a negative pressure to the wound bed; and a second opening extending through the drape that allows an airflow from the second opening to the tube via the manifold layer; wherein the absorbent layer is configured to swell to block the airflow from the second opening to the tube when the absorbent layer is full of fluid.
A circuit breaker comprising: a circuit unit having a main circuit; and a detecting unit having a detection circuit for detecting a fault current in the main circuit; characterized in that the circuit breaker further comprises a circuit operating device configured to allow connection or isolation between the main circuit and the detection circuit, wherein the circuit operating device comprises: a first fixed unit and a second fixed unit connected to the main circuit and the detection circuit, respectively, and arranged in parallel to each other; and a moving unit rotatably coupled between the first fixed unit and the second fixed unit to connect or isolate the main circuit and the detection circuit to or from each other. a circuit unit having a main circuit; and a detecting unit having a detection circuit for detecting a fault current in the main circuit; characterized in that the circuit breaker further comprises a circuit operating device configured to allow connection or isolation between the main circuit and the detection circuit, wherein the circuit operating device comprises: a first fixed unit and a second fixed unit connected to the main circuit and the detection circuit, respectively, and arranged in parallel to each other; and a moving unit rotatably coupled between the first fixed unit and the second fixed unit to connect or isolate the main circuit and the detection circuit to or from each other. a first fixed unit and a second fixed unit connected to the main circuit and the detection circuit, respectively, and arranged in parallel to each other; and a moving unit rotatably coupled between the first fixed unit and the second fixed unit to connect or isolate the main circuit and the detection circuit to or from each other.
A thread milling cutter comprising a main body having a shank and a cutting portion having a cylindrical basic shape and an axis of rotation, and a plurality of cutting teeth spaced in a peripheral direction and arranged on the cutting portion in at least two different radial planes, which radial planes extend perpendicularly to the axis of rotation, wherein the cutting portion has at least two seats for receiving a respective cutting insert in each of the at least two different radial planes, and wherein the cutting teeth are formed by cutting corners of the cutting inserts, characterized in that the cutting inserts in a plan view of the rake face have a basic shape of an equilateral triangle and are mounted radially in their respective seat, and in that the cutting inserts of different radial planes are arranged in a mutually displaced relationship in the peripheral direction.
Clutch disc, which has a wheel hub arranged at a central point, a vibration damper connected to the wheel hub, and multiple friction discs arranged at an edge of the vibration damper, wherein the wheel hub has a main body and has an extension part which is arranged on one end of the main body, multiple internal toothed-ring parts are arranged in the main body, which internal toothed-ring parts extend an axial direction, the internal toothed-ring parts are capable of producing a rotationally conjoint connection to a drive-input shaft of a gearbox, characterized in that the extension part extends in the axial direction and forms a cavity at the inside, and a dust-tight element is fitted on an opening on a side of the cavity which is remote from the internal toothed-ring parts.
A method comprising: presenting at a mobile device a user interface of changeable attributes associated with a plurality of voicemail systems (106, 107); receiving a change to one or more of the changeable attributes; receiving a designation of the voicemail systems (106, 107) to which the change is to be applied; and sending the change from the mobile device to the designated voicemail systems. presenting at a mobile device a user interface of changeable attributes associated with a plurality of voicemail systems (106, 107); receiving a change to one or more of the changeable attributes; receiving a designation of the voicemail systems (106, 107) to which the change is to be applied; and sending the change from the mobile device to the designated voicemail systems.
A probe system for optically probing a trench side-wall of a trench defined within a device under test, which is defined on a substrate that defines a substrate surface, wherein the trench side-wall includes an optical device positioned a device distance below the substrate surface, the probe system comprising: a probing assembly that includes an optical probe that defines a probe tip and a distance sensor that defines a sensor surface, wherein the optical probe extends through a plane that extends within the sensor surface, and further wherein the probe tip is positioned on a sensor-opposed side of the plane; a support surface configured to support the substrate; a positioning assembly configured to selectively regulate a relative orientation between the probing assembly and the DUT; and a controller programmed to control the operation of the probe system by: (i) determining a sensed distance between the sensor surface and the substrate surface; (ii) calculating at least one probe distance between the optical probe and the substrate based, at least in part, on the sensed distance; (iii) adjusting the relative orientation between the probing assembly and the DUT with the positioning assembly; and (iv) regulating the adjustment of the relative orientation based, at least in part, on the at least one probe distance to maintain at least a threshold separation distance between the optical probe and the substrate. a probing assembly that includes an optical probe that defines a probe tip and a distance sensor that defines a sensor surface, wherein the optical probe extends through a plane that extends within the sensor surface, and further wherein the probe tip is positioned on a sensor-opposed side of the plane; a support surface configured to support the substrate; a positioning assembly configured to selectively regulate a relative orientation between the probing assembly and the DUT; and a controller programmed to control the operation of the probe system by: (i) determining a sensed distance between the sensor surface and the substrate surface; (ii) calculating at least one probe distance between the optical probe and the substrate based, at least in part, on the sensed distance; (iii) adjusting the relative orientation between the probing assembly and the DUT with the positioning assembly; and (iv) regulating the adjustment of the relative orientation based, at least in part, on the at least one probe distance to maintain at least a threshold separation distance between the optical probe and the substrate. (i) determining a sensed distance between the sensor surface and the substrate surface; (ii) calculating at least one probe distance between the optical probe and the substrate based, at least in part, on the sensed distance; (iii) adjusting the relative orientation between the probing assembly and the DUT with the positioning assembly; and (iv) regulating the adjustment of the relative orientation based, at least in part, on the at least one probe distance to maintain at least a threshold separation distance between the optical probe and the substrate.
Mechanical assembly comprising at least one connecting member having first and second hooks (41, 42) that each have a connected end and a free end that are spaced apart from one another in a direction parallel to a first axis, these first and second hooks (41, 42) being disposed opposite one another along a second alignment axis perpendicular to the first axis, being urged elastically towards one another, and being able to move between a close-together relative end position and a spaced-apart relative end position, characterized in that the connecting member comprises first and second components (1, 2) and elastic means for urging these components, in that the first and second components (1, 2) respectively carry the first and second hooks (41, 42) and first and second gripping lugs (43, 44), in that these first and second components (1, 2) are mounted so as to slide with respect to one another, and in that the first and second components (1, 2) have a mutual crossover zone disposed between their respective hooks (41, 42) and lugs (43, 44), with the result that the first and second hooks (41, 42) can be spaced apart from one another by moving the first and second gripping lugs (43, 44) together.
Method for operating a driver assistance system of a vehicle, wherein the driver assistance system is configured to automatically prepare for or carry out interventions in the movement of the vehicle on the basis of a risk value and triggering threshold values, wherein at least two intervention levels are defined which prepare for or produce ever greater interventions in the movement of the vehicle, wherein a triggering threshold value is respectively assigned to each intervention level, wherein, in the method, the vehicle environment is captured, the position of at least one object in the captured vehicle environment relative to the position of the vehicle is determined, a check is carried out in order to determine whether the object is a risk to the vehicle and, if the object is a risk to the vehicle, this object is classified as a critical object and is assigned a specific risk value, a viewing direction of a driver of the vehicle is captured and is used to determine a field of view, and the position of a critical object is taken as a basis for checking whether this critical object is outside the field of view of the driver, characterized in that if the critical object is outside the field of view of the driver, relative to the triggering threshold values for which the critical object is in the field of view of the driver, the triggering threshold value for the intervention of the lower intervention level is reduced to a greater extent than for the intervention of the higher intervention level. the vehicle environment is captured, the position of at least one object in the captured vehicle environment relative to the position of the vehicle is determined, a check is carried out in order to determine whether the object is a risk to the vehicle and, if the object is a risk to the vehicle, this object is classified as a critical object and is assigned a specific risk value, a viewing direction of a driver of the vehicle is captured and is used to determine a field of view, and the position of a critical object is taken as a basis for checking whether this critical object is outside the field of view of the driver, characterized in that if the critical object is outside the field of view of the driver, relative to the triggering threshold values for which the critical object is in the field of view of the driver, the triggering threshold value for the intervention of the lower intervention level is reduced to a greater extent than for the intervention of the higher intervention level.
A method comprising: applying a voltage from a voltage regulator to a component of a computing system; measuring operational values in accordance with a self-test of the component; storing the operational values to a memory device; retrieving the operational values from the memory device; and calculating a power saving parameter that is dedicated to the component based on the operational values by extrapolating from the operational values to the power saving parameter; and reducing the voltage based on the power saving parameter; wherein reducing the voltage includes: receiving a notification of a power saving event; and selecting the power saving parameter based on the notification. applying a voltage from a voltage regulator to a component of a computing system; measuring operational values in accordance with a self-test of the component; storing the operational values to a memory device; retrieving the operational values from the memory device; and calculating a power saving parameter that is dedicated to the component based on the operational values by extrapolating from the operational values to the power saving parameter; and reducing the voltage based on the power saving parameter; wherein reducing the voltage includes: receiving a notification of a power saving event; and selecting the power saving parameter based on the notification. receiving a notification of a power saving event; and selecting the power saving parameter based on the notification.
A single step, single pot process for the synthesis of furan derivative from carbohydrate comprising a step of stirring a reaction mixture of carbohydrate in a solvent in presence of a catalyst at a temperature in the range of 170 to 190°C for a time period in the range of 23 to 25 hrs to obtain corresponding furan derivative, wherein the furan derivative is 2,5-di(formyl)furan; wherein the carbohydrate is selected from the group consisting of fructose, glucose or sucrose; wherein the solvent is dimethyl sulfoxide; and wherein the said catalyst is sulfuric acid. wherein the carbohydrate is selected from the group consisting of fructose, glucose or sucrose; wherein the solvent is dimethyl sulfoxide; and wherein the said catalyst is sulfuric acid.
A method, comprising: determining, by a reader device (108, 408), a location of a mobile computing device (102, 402, 502) relative to the reader device (108, 408); establishing, by the reader device (108, 408), a wireless communication connection with the mobile computing device (102, 402, 502) in response to a determination that the mobile computing device (102, 402, 502) is within a connection zone of the reader device (108, 408); receiving, by the reader device (108, 408) and from the mobile computing device (102, 402, 502), credential information indicative of access rights of the mobile computing device (102, 402, 502) to an access-controlled region associated with the reader device (108, 408); selecting, by the reader device (108, 408), a function to perform based on, when the mobile computing device (102, 402, 502) is within an activation zone, aspects of the credential information, and characteristics of the mobile computing device (102, 402, 502) including a speed and a direction of travel of the mobile computing device (102, 402, 502); and performing, by the reader device (108, 408), the function in response to a determination that a position of the mobile computing device (102, 402, 502)in relation to the activation zone and the speed and direction of travel of the mobile computing device (102, 402, 502) are indicative of desired activation. determining, by a reader device (108, 408), a location of a mobile computing device (102, 402, 502) relative to the reader device (108, 408); establishing, by the reader device (108, 408), a wireless communication connection with the mobile computing device (102, 402, 502) in response to a determination that the mobile computing device (102, 402, 502) is within a connection zone of the reader device (108, 408); receiving, by the reader device (108, 408) and from the mobile computing device (102, 402, 502), credential information indicative of access rights of the mobile computing device (102, 402, 502) to an access-controlled region associated with the reader device (108, 408); selecting, by the reader device (108, 408), a function to perform based on, when the mobile computing device (102, 402, 502) is within an activation zone, aspects of the credential information, and characteristics of the mobile computing device (102, 402, 502) including a speed and a direction of travel of the mobile computing device (102, 402, 502); and performing, by the reader device (108, 408), the function in response to a determination that a position of the mobile computing device (102, 402, 502)in relation to the activation zone and the speed and direction of travel of the mobile computing device (102, 402, 502) are indicative of desired activation.
Attachment device for fastening a luminaire to a mast spigot comprising an attachment part and a connecting part as two main parts (3, 4), wherein the attachment part has a cylinder portion for placing onto a mast spigot that extends in a longitudinal direction over a cylinder length, wherein the connecting element is configured for connecting the luminaire and is connected to the attachment part by an articulated joint, wherein the attachment device comprises two retaining elements (5, 6), each of which has a disk (50, 60) as well as a guiding portion (52, 62) running away from the disk (50, 60) over a guiding portion length, wherein the guiding portion (52, 62) has a constant guiding cross-section at least in sections and the disk (50, 60) has a toothed structure (51, 61) on one of its disk sides, wherein a first of the two main parts (3, 4) has a guiding channel for receiving the guiding portions (52, 53) of the two retaining elements (5, 6) and the second of the two main elements (3, 4) has two latching surfaces, wherein the guiding channel extends in a transverse direction and has a cross-section that corresponds to the guiding cross-section, wherein the retaining elements (5, 6) can be placed in the guiding channel and are slidable in the transverse direction, characterized in that the latching surfaces are spaced from each other in the transverse direction and each of them has a latching structure that corresponds to the toothed structure (51, 61) of the disk sides, wherein the first main element (3, 4) comprises a sliding element that cooperates, in a mounting position of the attachment device, with the retaining elements (5, 6) and that is configured for sliding the retaining elements (5, 6) in the transverse direction in the guiding channel by applying a force, wherein the retaining elements (5, 6) in the guiding channel and the latching surfaces are arranged relative to one another so that the toothed structures (51, 61) of the retaining elements (5, 6) can be pressed against the latching surfaces of the second main element (3, 4) by means of the sliding element.
Use of an aqueous composition comprising at least one non-ionic surfactant A and at least one hydrophobizer B for treating substrates comprising patterns having line-space dimensions of 50 nm or below, wherein (a) the at least one surfactant A has an equilibrium surface tension of 10 mN/m to 35 mN/m, determined from a solution of the at least one surfactant A in water at the critical micelle concentration, and (b) the hydrophobizer B is selected so that the contact angle of water to the substrate is increased by contacting the substrate with a solution of the hydrophobizer B in water by 5-95° compared to the contact angle of water to the substrate before such contacting. (a) the at least one surfactant A has an equilibrium surface tension of 10 mN/m to 35 mN/m, determined from a solution of the at least one surfactant A in water at the critical micelle concentration, and (b) the hydrophobizer B is selected so that the contact angle of water to the substrate is increased by contacting the substrate with a solution of the hydrophobizer B in water by 5-95° compared to the contact angle of water to the substrate before such contacting.
Electric cable comprising an elongated electrical conductor composed of at least a first metallic elongated element surrounded by a second metallic elongated element, characterized in that the electric cable further comprises an elongated mineral element including mica as contaminating mineral material having a melting point superior or equal to the melting point of the first and second metallic elements, said elongated mineral element being positioned along the electric cable and between the first and the second metallic elongated elements (1, 2).
A computation device, comprising an operation unit, a controller unit, and a conversion unit, wherein: the controller unit is configured to obtain first input data and transmit the first input data to the conversion unit, and configured to transmit a plurality of operation instructions to the operation unit; the conversion unit is configured to convert the first input data into second input data and transmit the second input data to the operation unit, wherein the second input data is fixed-point data; and the operation unit is configured to perform operations on the second input data; wherein the operation unit comprises a data cache unit configured to cache one or more intermediate results, the operation unit does not perform truncation processing on the one or more intermediate results whose data type is floating point type. the controller unit is configured to obtain first input data and transmit the first input data to the conversion unit, and configured to transmit a plurality of operation instructions to the operation unit; the conversion unit is configured to convert the first input data into second input data and transmit the second input data to the operation unit, wherein the second input data is fixed-point data; and the operation unit is configured to perform operations on the second input data; wherein the operation unit comprises a data cache unit configured to cache one or more intermediate results, the operation unit does not perform truncation processing on the one or more intermediate results whose data type is floating point type.