mhurhangee/patent-ind-claim-en huggingface dataset:
A filter member comprising: a nanofiber layer comprised of polymeric nanofibers overlying a microporous membrane, wherein: the microporous membrane is asymmetric and comprises an ultra high molecular weight polyethylene with a molecular weight numbering of 1 million or more and having a size rating determined by bubble point measurement in isopropyl alcohol (IPA) or 3MTM HFE-7200 of 0.001 microns to 0.05 microns; and the nanofiber layer is comprised of nylon nanofibers and comprises a mean nanofiber diameter in the range of from 25 to 250 nm, and the nanofiber layer can be characterized by an IPA bubble point of 138 kPa ±34 kPa (20 psi ±5 psi) and an air permeability at 125 Pa of 566 cm 3 per second to 661 cm 3 per second (1.2 cubic feet per minute (cfm) to 1.4 cfm) measured using test method ASTM D737-96; and wherein the filter member has a liquid pressure drop in a test liquid which is within ±15 percent of a liquid pressure drop of the microporous membrane alone in the test liquid, wherein the test liquid is a liquid feed solution that contains 0.1% (w/w) C 14 H 22 O(C 2 H 4 O) n wherein n is 9.5 on average (Triton X-100) in water at a flow rate of 30 milliliters/minute at room temperature; and the filter member has a liquid particle retention for 25 nanometer fluorescent polystyrene latex beads from a test liquid with 0.3 wt% sodium dodecylsulfate (SDS) surfactant at 10% monolayer coverage to 30% monolayer coverage, that is greater than the liquid particle retention of the microporous membrane alone for the 25 nanometer fluorescent polystyrene latex beads under the same test conditions. the microporous membrane is asymmetric and comprises an ultra high molecular weight polyethylene with a molecular weight numbering of 1 million or more and having a size rating determined by bubble point measurement in isopropyl alcohol (IPA) or 3MTM HFE-7200 of 0.001 microns to 0.05 microns; and the nanofiber layer is comprised of nylon nanofibers and comprises a mean nanofiber diameter in the range of from 25 to 250 nm, and the nanofiber layer can be characterized by an IPA bubble point of 138 kPa ±34 kPa (20 psi ±5 psi) and an air permeability at 125 Pa of 566 cm 3 per second to 661 cm 3 per second (1.2 cubic feet per minute (cfm) to 1.4 cfm) measured using test method ASTM D737-96; and wherein the filter member has a liquid pressure drop in a test liquid which is within ±15 percent of a liquid pressure drop of the microporous membrane alone in the test liquid, wherein the test liquid is a liquid feed solution that contains 0.1% (w/w) C 14 H 22 O(C 2 H 4 O) n wherein n is 9.5 on average (Triton X-100) in water at a flow rate of 30 milliliters/minute at room temperature; and the filter member has a liquid particle retention for 25 nanometer fluorescent polystyrene latex beads from a test liquid with 0.3 wt% sodium dodecylsulfate (SDS) surfactant at 10% monolayer coverage to 30% monolayer coverage, that is greater than the liquid particle retention of the microporous membrane alone for the 25 nanometer fluorescent polystyrene latex beads under the same test conditions.
torque wrench comprising: a hollow housing comprising a cylindrical outer wall having a proximal end and a distal end, and a cylindrical inner wall having a proximal end and a distal end, the cylindrical inner wall being spaced from the cylindrical outer wall so as to provide a cylindrical gap therebetween, the proximal end of the cylindrical outer wall being connected to the proximal end of the cylindrical inner wall , and the distal end of the cylindrical outer wall being configured to engage a workpiece housing; and a mechanical multiplier for disposition within the cylindrical inner wall of the hollow housing , the mechanical multiplier comprising a torque input shaft and a torque output shaft , the mechanical multiplier being connected to the cylindrical inner wall of the hollow housing by a loose, non-binding connection, and the torque output shaft being configured to engage a workpiece fastener; characterized in that the loose, non-binding connection is a loose, non-binding spline connection; that the loose, non-binding spline connection comprises a first set of splines disposed on the cylindrical inner wall of the hollow housing and a second set of splines disposed on a hollow mount which is secured to the mechanical multiplier ; and that the first set of splines and the second set of splines are formed so that there is a small but perceptible degree of play between the splines when torque is applied, whereby to form the loose, non-binding spline connection and thereby eliminate the deadband effect. a hollow housing comprising a cylindrical outer wall having a proximal end and a distal end, and a cylindrical inner wall having a proximal end and a distal end, the cylindrical inner wall being spaced from the cylindrical outer wall so as to provide a cylindrical gap therebetween, the proximal end of the cylindrical outer wall being connected to the proximal end of the cylindrical inner wall , and the distal end of the cylindrical outer wall being configured to engage a workpiece housing; and a mechanical multiplier for disposition within the cylindrical inner wall of the hollow housing , the mechanical multiplier comprising a torque input shaft and a torque output shaft , the mechanical multiplier being connected to the cylindrical inner wall of the hollow housing by a loose, non-binding connection, and the torque output shaft being configured to engage a workpiece fastener; characterized in that the loose, non-binding connection is a loose, non-binding spline connection; that the loose, non-binding spline connection comprises a first set of splines disposed on the cylindrical inner wall of the hollow housing and a second set of splines disposed on a hollow mount which is secured to the mechanical multiplier ; and that the first set of splines and the second set of splines are formed so that there is a small but perceptible degree of play between the splines when torque is applied, whereby to form the loose, non-binding spline connection and thereby eliminate the deadband effect.
Snap hook for attaching a ring comprising a hook body having an opening, the hook body becoming a closed lug by means of a resilient locking tongue closing the opening, containing a) a foot section on which the locking tongue , in the form of a U-profile made from a curved, bent spring steel wire having U-profile legs (6.1; 6.2), is pivotably mounted, wherein the U-profile legs (6.1; 6.2) have different lengths with inwardly bent ends (6.11; 6.21) which are inserted into mounting openings arranged at the foot section , b) a back section connecting to the foot section , c) a head section connecting to the back section and bent in a hook shape in the direction of the foot section and the locking tongue contacts against its free end and against its inner side (4.1) in the closed state of the snap hook , d) an eyelet arranged on the foot section , e) an additional securing element for preventing the unintentional pushing away of the locking tongue from its contact position against the inner side of the end section of the head section bent in the direction of the foot section , wherein the securing element is a plate-shaped projection directed toward the head section and engages between the two U-profile legs (6.1; 6.2) of the locking tongue and connects to the inner side of the foot section and partially to the inner side of the back section of the hook body , characterized in that the plate-shaped projection engages between the two profile legs (6.1; 6.2) across a majority of the length of the locking tongue . a) a foot section on which the locking tongue , in the form of a U-profile made from a curved, bent spring steel wire having U-profile legs (6.1; 6.2), is pivotably mounted, wherein the U-profile legs (6.1; 6.2) have different lengths with inwardly bent ends (6.11; 6.21) which are inserted into mounting openings arranged at the foot section , b) a back section connecting to the foot section , c) a head section connecting to the back section and bent in a hook shape in the direction of the foot section and the locking tongue contacts against its free end and against its inner side (4.1) in the closed state of the snap hook , d) an eyelet arranged on the foot section , e) an additional securing element for preventing the unintentional pushing away of the locking tongue from its contact position against the inner side of the end section of the head section bent in the direction of the foot section , wherein the securing element is a plate-shaped projection directed toward the head section and engages between the two U-profile legs (6.1; 6.2) of the locking tongue and connects to the inner side of the foot section and partially to the inner side of the back section of the hook body ,
Drilling tool, in particular rock drilling tool, for a portable machine tool, with an axis of rotation (12a; 12b; 12c; 12d) and with at least one spiral thread (14a; 14b; 14c; 14d) which is wound around the axis of rotation (12a; 12b; 12c; 12d) along the axis of rotation (12a; 12b; 12c; 12d), wherein the spiral thread (14a; 14b; 14c; 14d) has at least one wearing surface (16a; 16b; 16c; 16d), with at least one wearing surface transition (18a; 18b; 18c; 18d), at the position of which at least one width (20a; 20b; 20c; 20d) of the wearing surface (16a; 16b; 16c; 16d) is changed, characterized in that the drilling tool has at least one spiral thread change (24a; 24d), at the position of which a number of spiral threads (14a, 26a; 14d, 26d) is changed, wherein at least one further spiral thread (26a; 26d) which is wound around the axis of rotation (12a; 12d) along the axis of rotation (12a; 12d) merges into or ends in the spiral thread (14a; 14d) in an immediate vicinity (28a; 28d) of the wearing surface transition (18a; 18d), wherein the wearing surface transition (18a; 18d) is formed in an abrupt manner.
A device , comprising: an event-based vision sensor comprising a plurality of sensing elements, said sensor being configured to detect respective events generated according to a movement of an object for each of the plurality of sensing elements and to output a corresponding plurality of event signals, and being further configured to output a respective event signal in response to detecting a change in an intensity of light incident on a sensing element of the event-based vision sensor in a time-asynchronous manner; a processor configured to generate, in response to the output of the plurality of event signals, a graphic representation that corresponds to an event signal from among the plurality of event signals that relates to the movement of the object, wherein the graphic representation comprises at least one visual graphic primitive that indicates a single event signal detected by a single sensing element; and a display controlled by the processor and configured to display the generated graphic representation. an event-based vision sensor comprising a plurality of sensing elements, said sensor being configured to detect respective events generated according to a movement of an object for each of the plurality of sensing elements and to output a corresponding plurality of event signals, and being further configured to output a respective event signal in response to detecting a change in an intensity of light incident on a sensing element of the event-based vision sensor in a time-asynchronous manner; a processor configured to generate, in response to the output of the plurality of event signals, a graphic representation that corresponds to an event signal from among the plurality of event signals that relates to the movement of the object, wherein the graphic representation comprises at least one visual graphic primitive that indicates a single event signal detected by a single sensing element; and a display controlled by the processor and configured to display the generated graphic representation.
An image forming apparatus comprising: image forming means (101; 102; 103; 109) arranged to form an image on a recording material; signal processing means arranged to control the image forming means (101; 102; 103; 109); sheet feeding means arranged to store a recording material to be supplied to the image forming means (101; 102; 103; 109), the sheet feeding means protruding from a main body including the image forming means (101; 102; 103; 109) and the signal processing means ; covering means arranged to cover the recording material stored in the sheet feeding means ; and user interface means provided on the covering means arranged to input information into the signal processing means or output information from the signal processing means , wherein the covering means is connected to the main body and is rotatable relative to the main body . image forming means (101; 102; 103; 109) arranged to form an image on a recording material; signal processing means arranged to control the image forming means (101; 102; 103; 109); sheet feeding means arranged to store a recording material to be supplied to the image forming means (101; 102; 103; 109), the sheet feeding means protruding from a main body including the image forming means (101; 102; 103; 109) and the signal processing means ; covering means arranged to cover the recording material stored in the sheet feeding means ; and user interface means provided on the covering means arranged to input information into the signal processing means or output information from the signal processing means , wherein the covering means is connected to the main body and is rotatable relative to the main body .
A method comprising: receiving, at an access point , an indication of data for transmission to a target device for which cellular network communication between an originating device and the target device is not currently available; receiving, by the access point, data corresponding to the indication from a memory buffer of the originating device, the memory buffer being associated with a short range communication link, wherein receiving the data comprises causing the data to be pulled from a radio frequency (RF) memory tag server of the memory buffer of the originating device while the originating device is powered off; and causing, by the access point, communication of the data via a long range communication link to enable communication of the data to the target device . receiving, at an access point , an indication of data for transmission to a target device for which cellular network communication between an originating device and the target device is not currently available; receiving, by the access point, data corresponding to the indication from a memory buffer of the originating device, the memory buffer being associated with a short range communication link, wherein receiving the data comprises causing the data to be pulled from a radio frequency (RF) memory tag server of the memory buffer of the originating device while the originating device is powered off; and causing, by the access point, communication of the data via a long range communication link to enable communication of the data to the target device .
A water-soluble film having a thickness of 30 to 1,000 μm, said film containing at least one layer of solid material, said solid material comprising: • 25 to 88 wt.%, as based on the total weight of the solid material, free acid equivalent of aminopolycarboxylate; • 10 to 65 wt.%, as based on the total weight of the solid material, of one or more other water-soluble components; • 2 to 25 wt.%, as based on the total weight of the solid material, water. • 25 to 88 wt.%, as based on the total weight of the solid material, free acid equivalent of aminopolycarboxylate; • 10 to 65 wt.%, as based on the total weight of the solid material, of one or more other water-soluble components; • 2 to 25 wt.%, as based on the total weight of the solid material, water.
A method, performed by a user equipment, for access to Narrowband Internet of Things, NB IoT, comprising: receiving , on an anchor carrier, a narrowband primary synchronization signal, NPSS, and a narrowband secondary synchronization signal, NSSS, for synchronization; receiving , on the anchor carrier, a master information block, MIB, associated with a narrow band; identifying whether the anchor carrier is in a standalone mode or in an inband mode based on the MIB; identifying whether a non-anchor carrier is a lower adjacent carrier relative to the anchor carrier or a higher adjacent carrier relative to the anchor carrier, based on the anchor carrier being in the standalone mode or the inband mode; and receiving , on the non-anchor carrier, a system information block, SIB, associated with the narrow band based on scheduling information in the MIB, wherein the MIB is carried on a narrowband physical broadcast channel, NPBCH, and the SIB is carried on a narrowband physical downlink shared channel, NPDSCH, and wherein a number of NPDSCH repetitions, a starting radio frame number for a first transmission of the NPDSCH carrying the SIB, and at least one subframe index for the NPDSCH are determined based on the scheduling information in the MIB. receiving , on an anchor carrier, a narrowband primary synchronization signal, NPSS, and a narrowband secondary synchronization signal, NSSS, for synchronization; receiving , on the anchor carrier, a master information block, MIB, associated with a narrow band; identifying whether the anchor carrier is in a standalone mode or in an inband mode based on the MIB; identifying whether a non-anchor carrier is a lower adjacent carrier relative to the anchor carrier or a higher adjacent carrier relative to the anchor carrier, based on the anchor carrier being in the standalone mode or the inband mode; and receiving , on the non-anchor carrier, a system information block, SIB, associated with the narrow band based on scheduling information in the MIB, wherein the MIB is carried on a narrowband physical broadcast channel, NPBCH, and the SIB is carried on a narrowband physical downlink shared channel, NPDSCH, and wherein a number of NPDSCH repetitions, a starting radio frame number for a first transmission of the NPDSCH carrying the SIB, and at least one subframe index for the NPDSCH are determined based on the scheduling information in the MIB.
A multi-layered ice detector apparatus comprising: a first heater strip configured to be mounted to an external surface of an aircraft, the first heater strip forming a first heater layer of the multi-layered ice detector apparatus; a second heater strip coupled in proximity to the first heater strip, the second heater strip forming a second heater layer of the multi-layered ice detector apparatus; a plurality of temperature sensors coupled to at least one of the first heater strip and the second heater strip, wherein the plurality of temperature sensors are configured to detect a temperature profile of the multi-layered ice detector apparatus, wherein the temperature profile is indicative of an extent of icing, wherein the second heater strip has a higher heat generation rating than the first heater strip, and wherein the second heater strip is configured to be positioned closer to the external surface than the first heater strip in response to the multi-layered ice detector being mounted to the external surface. a first heater strip configured to be mounted to an external surface of an aircraft, the first heater strip forming a first heater layer of the multi-layered ice detector apparatus; a second heater strip coupled in proximity to the first heater strip, the second heater strip forming a second heater layer of the multi-layered ice detector apparatus; a plurality of temperature sensors coupled to at least one of the first heater strip and the second heater strip, wherein the plurality of temperature sensors are configured to detect a temperature profile of the multi-layered ice detector apparatus, wherein the temperature profile is indicative of an extent of icing, wherein the second heater strip has a higher heat generation rating than the first heater strip, and wherein the second heater strip is configured to be positioned closer to the external surface than the first heater strip in response to the multi-layered ice detector being mounted to the external surface.
Pull-out guide having at least two rails (2, 3, 4; 2', 3', 4') which can be moved relative to one another and on each of which at least two running surfaces (20, 30; 20', 30') are formed, on which at least one rolling element (10, 10', 10", 10′′′) is guided, which can be rolled with at least one contact surface along the respective running surface (20, 30; 20', 30'), wherein the at least one contact surface of the at least one rolling element (10, 10', 10", 10′′′) has a corrugated shape, characterized in that the corrugation of the contact surface is sinusoidal in an unwinding.
Roll-off tipper vehicle , comprising: - a vehicle body ; - a handling device for receiving a swap container on the vehicle body and for removing the swap container from the vehicle body ; and - at least one contact portion having a contact surface for carrying the received swap container; the at least one contact portion being associated with at least one conveyor roller unit having at least one conveyor roller that is displaceable, by means of a displacement unit, between a retracted position and an extended position, with respect to the contact surface , rolling of the swap container thereon being made possible only in the extended position of the at least one conveyor roller , characterised in that the or at least one of the conveyor roller units comprises at least two individual conveyor rollers , the shafts of which are oriented in parallel and so as to be fixed in position relative to one another, the conveyor rollers being connected to a roller block , which is displaceable by the displacement unit, in such a way that the roller surfaces thereof extend upwards the same amount in the vertical direction. - a vehicle body ; - a handling device for receiving a swap container on the vehicle body and for removing the swap container from the vehicle body ; and - at least one contact portion having a contact surface for carrying the received swap container;
A device access means for accessing fieldbus components of a fieldbus system , wherein the device access means is installed in a host or a host environment, wherein the device access means has: a frame application ; at least one driver (111-115) incorporated into the frame application , which is configured to access at least one fieldbus component , wherein the device access means has a monitoring unit which is configured to record information on resources used by the drivers (111-115) which are provided by the operating system of the host or the host environment, and, when an irregular temporary increase in the resources used by the drivers (111-115) is recognized, to arrange for at least one predetermined countermeasure. a frame application ; at least one driver (111-115) incorporated into the frame application , which is configured to access at least one fieldbus component , wherein the device access means has a monitoring unit which is configured to record information on resources used by the drivers (111-115) which are provided by the operating system of the host or the host environment, and, when an irregular temporary increase in the resources used by the drivers (111-115) is recognized, to arrange for at least one predetermined countermeasure.
Method for operating an image processing control device , wherein a output datum is determined from at least one input datum by means of an algorithm provided for image processing, wherein the input datum is an image of a camera , wherein it is checked whether the output datum is contained in a first group which does not contain all possible output data, after which a second determination of the output datum occurs to check the output datum only in the case of an output datum contained in the first group, wherein the first group which does not contain all possible output data comprises output data describing an intervention by an actuator and/or leading to an intervention by an actuator as well as security-critical output data.