mhurhangee/patent-ind-claim-en huggingface dataset:
A sewer cleaning machine comprising: a frame ; a drum rotatably supported by the frame, the drum having an opening ; a cable positioned at least partially within the drum, the cable configured to be extended from and retracted into the drum through the opening; and a cable feed device supported by the frame adjacent the opening of the drum, the cable feed device including a plurality of bearings selectively engagable with the cable to feed the cable in or out of the drum, a first lever configured to move at least one of the plurality of bearings into engagement with the cable, a second lever configured to adjust at least one of the plurality of bearings between a forward feed orientation and a reverse feed orientation, and a locking assembly having a ratchet gear and a pawl engagable with the ratchet gear to selectively hold the at least one of the plurality of bearings in the forward feed orientation or the reverse feed orientation. a frame ; a drum rotatably supported by the frame, the drum having an opening ; a cable positioned at least partially within the drum, the cable configured to be extended from and retracted into the drum through the opening; and a cable feed device supported by the frame adjacent the opening of the drum, the cable feed device including a plurality of bearings selectively engagable with the cable to feed the cable in or out of the drum, a first lever configured to move at least one of the plurality of bearings into engagement with the cable, a second lever configured to adjust at least one of the plurality of bearings between a forward feed orientation and a reverse feed orientation, and a locking assembly having a ratchet gear and a pawl engagable with the ratchet gear to selectively hold the at least one of the plurality of bearings in the forward feed orientation or the reverse feed orientation. a plurality of bearings selectively engagable with the cable to feed the cable in or out of the drum, a first lever configured to move at least one of the plurality of bearings into engagement with the cable, a second lever configured to adjust at least one of the plurality of bearings between a forward feed orientation and a reverse feed orientation, and a locking assembly having a ratchet gear and a pawl engagable with the ratchet gear to selectively hold the at least one of the plurality of bearings in the forward feed orientation or the reverse feed orientation.
A measuring device for measuring the electrical conductivity of a flowing fluid, composed of a basic sensor having measuring electronics , the basic sensor having an outer electrode which is configured as an electrically conductive tube section and connected to a ground potential and in which an inner electrode is disposed, the inner electrode being surrounded by the flowing fluid and having a useful electrode which is connected to a measuring potential for measuring-signal detection, the measuring electronics having an integrator and rocker-switch function which is realized by analog and/or digital circuit technology and which is configured in such a manner that when a bipolar clocked direct voltage is applied as a measuring potential, a basic frequency of the bipolar clocked DC voltage is generated as a linear function of the electrical conductivity of the fluid, and the inner electrode comprising at least one shield electrode which is disposed in isolation from the useful electrode and connected to a shield potential corresponding to the measuring potential but independent therefrom in order to generate a suitable electric field distribution so that a voltage corresponding to the bipolar clocked DC voltage is switched to the shield electrode , characterized in that for discharging electrical charges, the basic sensor has at least one discharge electrode around which the fluid flows and which is connected to the outer electrode in an electrically conductive manner.
An apparatus, comprising: (a) a catheter shaft; and (b) an end effector at a distal end of the catheter shaft, the end effector being sized to fit in an anatomical passageway within a cardiovascular system, the end effector comprising: (i) a plurality of circuit boards, wherein the circuit boards are stacked longitudinally along a longitudinal axis of the end effector to define a stack of circuit boards, the circuit boards being configured to communicate electrical signals along a full length of the stack of circuit boards, and (ii) a distal tip member , wherein the distal tip member includes at least one electrode electrically coupled to at least one circuit board, the at least one electrode being configured to perform at least one of: (A) applying RF energy to tissue to thereby ablate the tissue, or (B) picking up potentials from tissue. (a) a catheter shaft; and (b) an end effector at a distal end of the catheter shaft, the end effector being sized to fit in an anatomical passageway within a cardiovascular system, the end effector comprising: (i) a plurality of circuit boards, wherein the circuit boards are stacked longitudinally along a longitudinal axis of the end effector to define a stack of circuit boards, the circuit boards being configured to communicate electrical signals along a full length of the stack of circuit boards, and (ii) a distal tip member , wherein the distal tip member includes at least one electrode electrically coupled to at least one circuit board, the at least one electrode being configured to perform at least one of: (A) applying RF energy to tissue to thereby ablate the tissue, or (B) picking up potentials from tissue. (i) a plurality of circuit boards, wherein the circuit boards are stacked longitudinally along a longitudinal axis of the end effector to define a stack of circuit boards, the circuit boards being configured to communicate electrical signals along a full length of the stack of circuit boards, and (ii) a distal tip member , wherein the distal tip member includes at least one electrode electrically coupled to at least one circuit board, the at least one electrode being configured to perform at least one of: (A) applying RF energy to tissue to thereby ablate the tissue, or (B) picking up potentials from tissue. (A) applying RF energy to tissue to thereby ablate the tissue, or (B) picking up potentials from tissue.
A method for producing unique instances of a host image from a host image design file, each unique instance having a unique digital payload, the method comprising: embedding a reference digital watermark in the image from the host image design file to produce a marked base image, the embedding determining embedding parameters, wherein the embedding parameters determine positive or negative adjustments of ink coverage within an allowable adjustment range according to visibility and robustness metrics; from the embedding parameters, computing allowable adjustments for producing final marked images with unique digital payloads, wherein each of the final marked images is a unique instance of the host image from the host image design file, and wherein the allowable adjustments provide an adjustment for embedding locations within plural tiles of the host image, each unique payload corresponding to particular payload adjustments that are a subset of the allowable adjustments; forming a database of the allowable adjustments, the database being configured to provide the particular payload adjustments from the allowable adjustments for the embedding locations according to values within a watermark signal tile of a unique payload; and receiving , from the database, adjustment quantities and locations of the particular payload adjustments for a unique digital payload, and making the particular payload adjustments to pixels of the host image to encode the unique digital payload. embedding a reference digital watermark in the image from the host image design file to produce a marked base image, the embedding determining embedding parameters, wherein the embedding parameters determine positive or negative adjustments of ink coverage within an allowable adjustment range according to visibility and robustness metrics; from the embedding parameters, computing allowable adjustments for producing final marked images with unique digital payloads, wherein each of the final marked images is a unique instance of the host image from the host image design file, and wherein the allowable adjustments provide an adjustment for embedding locations within plural tiles of the host image, each unique payload corresponding to particular payload adjustments that are a subset of the allowable adjustments; forming a database of the allowable adjustments, the database being configured to provide the particular payload adjustments from the allowable adjustments for the embedding locations according to values within a watermark signal tile of a unique payload; and receiving , from the database, adjustment quantities and locations of the particular payload adjustments for a unique digital payload, and making the particular payload adjustments to pixels of the host image to encode the unique digital payload.
Method of establishing a data communication between a mobile entity and the Internet via an access point (AP) and a trusted connection , comprising the following steps: - Sending a communication request (CR) from the mobile entity to an authentication server (AS) via the trusted connection requesting establishment of the data communication , - Carrying out an authentication process of the mobile entity at the authentication server (AS) based on the communication request (CR), - Sending a communication answer (CA), to establish the data communication , via the trusted connection from the authentication server (AS) to the mobile entity based on the result of the authentication process, - Blocking a securing process of securing the data communication , running on the trusted connection , at the mobile entity based on the communication answer (CA), characterized in that the securing process is blocked before it has been started, and the securing process is blocked by the following steps: - Sending a securing request (SR) from the mobile entity to the authentication server (AS) via the trusted connection requesting establishment of a secure communication tunnel, as the securing process, - Comparing the security request (SR) with active data communication via the trusted connection , - Sending a securing answer (SA) from the authentication server (AS) to the mobile entity to block the securing process. - Sending a communication request (CR) from the mobile entity to an authentication server (AS) via the trusted connection requesting establishment of the data communication , - Carrying out an authentication process of the mobile entity at the authentication server (AS) based on the communication request (CR), - Sending a communication answer (CA), to establish the data communication , via the trusted connection from the authentication server (AS) to the mobile entity based on the result of the authentication process, - Blocking a securing process of securing the data communication , running on the trusted connection , at the mobile entity based on the communication answer (CA), characterized in that the securing process is blocked before it has been started, and the securing process is blocked by the following steps: - Sending a securing request (SR) from the mobile entity to the authentication server (AS) via the trusted connection requesting establishment of a secure communication tunnel, as the securing process, - Comparing the security request (SR) with active data communication via the trusted connection , - Sending a securing answer (SA) from the authentication server (AS) to the mobile entity to block the securing process. - Sending a securing request (SR) from the mobile entity to the authentication server (AS) via the trusted connection requesting establishment of a secure communication tunnel, as the securing process, - Comparing the security request (SR) with active data communication via the trusted connection , - Sending a securing answer (SA) from the authentication server (AS) to the mobile entity to block the securing process.
A method for determining the mass flow according to the differential pressure method in an internal combustion engine, wherein a mass flowmeter measures a differential pressure (dp), an absolute pressure (pabs) and the temperature (temp) of the mass flow by means of sensors in order to calculate a mass flow signal, wherein the mass flowmeter communicates with the engine control of the internal combustion engine via a data bus, wherein the mass flow signal is filtered by an evaluation unit of the mass flowmeter and wherein the filtered mass flow signal is sent to the engine control, characterised in that the filtering parameters are calibrated by the evaluation unit to a measurement situation, wherein in a first measurement situation the filtering parameters are set on the basis of an analysis of pulsations of the current measured values and wherein in a second measurement situation the filtering parameters are set on the basis of status data of the internal combustion engine transferred from the engine control and received by the evaluation unit.
A connection tip for a flexible fluid transport line , the flexible line comprising a pressure sheath , an interlocked pressure vault arranged outwardly relative to the pressure sheath and at least one tensional reinforcement layer arranged outwardly relative to the interlocked pressure vault , the reinforcement layer comprising a plurality of reinforcement elements , the tip comprising: - an end region of the pressure sheath , - an end region of the interlocked pressure vault , - at least one end segment of each armor element , - an end vault and a cover fastened on the end vault , the end vault and the cover defining a chamber between them for receiving each end segment of the reinforcement elements , - a front crimping flange of the pressure sheath , the front crimping flange being attached on the end vault and arranged outwardly relative to the end region of the interlocked pressure vault , - a system for locking the interlocked pressure vault relative to the end vault , the locking system comprising an inwardly curved holding assembly that is radially mounted between the end region of the interlocked pressure vault and the front crimping flange , characterized in that the holding assembly comprises at least two separate circumferential members , preferably at least three separate circumferential members . - an end region of the pressure sheath , - an end region of the interlocked pressure vault , - at least one end segment of each armor element , - an end vault and a cover fastened on the end vault , the end vault and the cover defining a chamber between them for receiving each end segment of the reinforcement elements , - a front crimping flange of the pressure sheath , the front crimping flange being attached on the end vault and arranged outwardly relative to the end region of the interlocked pressure vault , - a system for locking the interlocked pressure vault relative to the end vault ,
A method for preserving a msg3 transmission via physical uplink shared channel, PUSCH, the method comprising: receiving, by a user equipment, UE, device, from a base station, a cancelation indication, CI, that overlaps with the msg3 transmission; and responsive to receiving the CI, determining not to cancel the msg3 transmission via PUSCH. receiving, by a user equipment, UE, device, from a base station, a cancelation indication, CI, that overlaps with the msg3 transmission; and responsive to receiving the CI, determining not to cancel the msg3 transmission via PUSCH.
A computer-implemented method for pre-installation detection of malware on mobile devices, at least a portion of the method being performed by a mobile computing device comprising at least one processor, the method comprising: intercepting one or more communications of an application installation agent that installs applications on the mobile computing device by: detecting, by a monitoring agent on the mobile computing device, an attempt to launch the application installation agent; interrupting, by the monitoring agent, the attempt to launch the application installation agent and re-launching the application installation agent as a process of the monitoring agent such that the monitoring agent is able to intercept communications from the application installation agent; identifying, based on the one or more intercepted communications, an application that has been at least partially downloaded by the application installation agent; in response to identifying the application, and before the application is installed on the mobile computing device, scanning the application for malware; determining, based on the scan, that the application contains malware; performing a security action in response to determining that the application contains malware. intercepting one or more communications of an application installation agent that installs applications on the mobile computing device by: detecting, by a monitoring agent on the mobile computing device, an attempt to launch the application installation agent; interrupting, by the monitoring agent, the attempt to launch the application installation agent and re-launching the application installation agent as a process of the monitoring agent such that the monitoring agent is able to intercept communications from the application installation agent; detecting, by a monitoring agent on the mobile computing device, an attempt to launch the application installation agent; interrupting, by the monitoring agent, the attempt to launch the application installation agent and re-launching the application installation agent as a process of the monitoring agent such that the monitoring agent is able to intercept communications from the application installation agent; identifying, based on the one or more intercepted communications, an application that has been at least partially downloaded by the application installation agent; in response to identifying the application, and before the application is installed on the mobile computing device, scanning the application for malware; determining, based on the scan, that the application contains malware; performing a security action in response to determining that the application contains malware.
A solenoid valve including a hollow cylindrical solenoid part , a movable core , and a valve element , in which the movable core is attracted upon energization of the solenoid part to move the valve element , wherein the solenoid valve further includes a magnetic pipe having a sliding inner surface on which the movable core slides and a cylindrical portion closed by a top face , the magnetic pipe includes a large-diameter portion having a larger diameter than the sliding inner surface , an urging spring is accommodated inside the large-diameter portion to urge the movable core in a direction toward a valve seat , and wherein the magnetic pipe includes a diameter-widening portion extending perpendicular to the large-diameter portion to form the large-diameter portion , characterized in that : the solenoid valve further includes a magnetic core including an upper core and a lower core surrounding the solenoid part to form a magnetic circuit, the lower core being placed to form a clearance with respect to the diameter-widening portion .
A process for the preparation of microcapsules encapsulating at least one active agent in a metal oxide shell comprising the steps of: - Preparing a non-hydrous emulsion comprising at least one polar phase, at least one non-polar phase, at least one active agent, at least one metal oxide precursor, at least one condensation precursor and at least one surface active agent; - Subjecting said non-hydrous emulsion to at least one condition allowing the formation of a metal oxide shell encapsulating said at least one active agent; thereby forming said microcapsules; wherein said process is a non-aqueous process. - Preparing a non-hydrous emulsion comprising at least one polar phase, at least one non-polar phase, at least one active agent, at least one metal oxide precursor, at least one condensation precursor and at least one surface active agent; - Subjecting said non-hydrous emulsion to at least one condition allowing the formation of a metal oxide shell encapsulating said at least one active agent; thereby forming said microcapsules; wherein said process is a non-aqueous process.
An earphone comprising housing , a speaker , a speaker protrusion extending along a protrusion axis (Z) and comprising an inner protrusion surface and an outer protrusion surface , a resilient eargel comprising an inner eargel surface and an outer eargel surface , wherein the eargel is detachably attached to the speaker protrusion , such that the outer protrusion surface abuts an abutment part of the inner eargel surface in an abutment zone extending along the protrusion axis (Z), the eargel being adapted to be inserted into the outer ear of a user, such that it abuts the ear canal of a user, whereby a cavity is provided between at least the speaker , the inner protrusion surface , the inner eargel surface and the ear canal, and wherein the earphone is provided with a vent channel coupling the cavity and the ambient, characterized in that the vent channel comprises a groove in the outer protrusion surface , the vent channel being provided between the groove and the inner eargel surface , and in that the groove comprises a first groove part , that extends in a plane orthogonal to the protrusion axis (Z).
A vacuum insulation body , comprising: a vacuum-tight covering that surrounds an evacuated region in which one or more core materials are arranged, wherein the vacuum-tight covering has an evacuation opening that is provided with a valve that comprises a valve disk , and the valve disk opens the evacuation opening in the opened state and closes the evacuation opening in the closed state, characterized in that means for a vacuum-tight thermal sealing of the evacuation opening are arranged outside the sealing region of the valve disk . a vacuum-tight covering that surrounds an evacuated region in which one or more core materials are arranged, wherein the vacuum-tight covering has an evacuation opening that is provided with a valve that comprises a valve disk , and the valve disk opens the evacuation opening in the opened state and closes the evacuation opening in the closed state, characterized in that means for a vacuum-tight thermal sealing of the evacuation opening are arranged outside the sealing region of the valve disk .