mhurhangee/patent-ind-claim-en huggingface dataset:
Method for monitoring a connection between terminal equipments via a communication network, characterized in that a set of modes, comprising at least two monitoring modes, and a classification order associated with said set of modes, are agreed on between the terminal equipments and a middlebox which is present on a path between the terminal equipments, said classification order being random or predetermined, and in that the method comprises: - initially activating said set of modes, corresponding to activating the first mode in said classification order; then - activating , in said classification order, every other mode in said set of modes, corresponding to moving from one mode to another in said set in said classification order; and in that each monitoring mode comprises at least one mechanism implemented by at least one of the terminal equipments and making it possible for said middlebox to perform at least one function of monitoring said connection. - initially activating said set of modes, corresponding to activating the first mode in said classification order; then - activating , in said classification order, every other mode in said set of modes, corresponding to moving from one mode to another in said set in said classification order;
Cutting device , in particular garden cutting device, having a first and a second cutting element that are movable relative to one another, having a first and a second lever element , in particular handle element , that are movable relative to one another and serve for opening and closing the cutting elements , wherein closing of the lever elements , in particular handle elements , causes closing of the cutting elements , wherein displacement of the lever elements through a first angle causes displacement of the cutting elements through a second angle , wherein the second angle is one and a half to three times larger than, preferably twice as large as, the first angle , further having a gear mechanism and/or a connector which brings about a transmission ratio i < 1 of a movement of the lever elements relative to a movement of the cutting elements , in particular a speed-increasing transmission ratio, characterized in that the connector is a toothed wheel , wherein the toothed wheel is held rotatably on the second lever element and is supported against a toothed portion of the first lever element at one side and against a toothed portion of the second cutting element at the other side.
Damping device for a drivetrain of a motor vehicle, having a first damping element which is rotatable about a rotation axis , having a second damping element which is able to be driven by the first damping element and, as a result, is rotatable about the rotation axis , having at least two damping chambers (18a, b) of which the volumes are variable by a relative rotation between the damping elements , having at least one overflow duct by way of which the damping chambers (18a, b) are fluidically connected to one another, and having a damping fluid which during a volumetric reduction of one of the damping chambers (18a, b) flows by way of the overflow duct from the one damping chamber into the other damping chamber , wherein the overflow duct, which at both ends opens into the respective damping chambers (18a, b), at least in one longitudinal region is formed by a gap (S) between the damping elements , said gap (S) being directly delimited by the damping elements , characterized in that the gap (S) is adjustable in terms of its width for adjusting the damping effect of the damping device .
Device for the connection of a front element to a side part of a movable furniture part, in particular a drawer, with at least two mounting units lying one above the other in the vertical direction of the front element and of which an upper mounting unit has a retaining projection with retaining section attachable to the inner side of the front element and in the attached state extending away from the inner side towards the side part , and with a catch device for the retaining projection attachable to the side part , wherein the catch device has a main body with a front and a rear , and a catch hook pivotably mounted on the main body , preloaded by a spring device , between a basic position and a clamped position , wherein the catch hook has a clamping face which faces the rear of the main body and engages behind the retaining section of the retaining projection in the clamped position , clamping the front element to the side part , wherein the catch hook has an actuating face , inclined relative to the clamping face and adjoining it via an apex facing the front of the main body , and lying in the basic position in the insertion path of the retaining projection , wherein the catch hook is biased via the spring device into the basic position in such a way that the retaining section of the retaining projection , during the insertion process, is able to strike against the actuating face and can press the catch hook , against the force of the spring device , out of the basic position and, after the retaining section has passed the apex and reached the area of the clamping face , is able though the force of the spring device to swivel the catch hook back in the direction of the basic position , in order to act with the clamping face on the retaining section , and wherein the catch hook is in the form of a single-arm lever, pivotably mounted on a stationary pivot axis located on the main body between the basic position and the clamped position, wherein the pivot axis is located in the area between the actuating face and the clamping face , characterised in that the spring device for preloading the catch hook into the basic position acts directly on a long side of the catch hook which is located opposite a long side equipped with the actuating face and the clamping face , or that the spring device for preloading the catch hook into the basic position acts indirectly on the catch hook via a force application lever , wherein the force application lever is hinged to the catch hook via a connecting hinge .
A packaging machine, comprising: a rest surface for supporting one or more blanks (B) intended to form a quadrangular packaging (C); at least a store , structured for containing a plurality of blanks (B) intended to form the packaging; at least a handler , structured so as to pick up the blanks (B) from the store and to arrange the blanks (B) on the rest surface ; folder means , structured so as to fold the blanks (B) in such a way as to form the packaging; characterised in that it comprises: a store for each side of the packaging (C); a handler for each side of the packaging (C). a rest surface for supporting one or more blanks (B) intended to form a quadrangular packaging (C); at least a store , structured for containing a plurality of blanks (B) intended to form the packaging; at least a handler , structured so as to pick up the blanks (B) from the store and to arrange the blanks (B) on the rest surface ; folder means , structured so as to fold the blanks (B) in such a way as to form the packaging; characterised in that it comprises: a store for each side of the packaging (C); a handler for each side of the packaging (C). a store for each side of the packaging (C); a handler for each side of the packaging (C).
Motor vehicle drive assembly, comprising a control unit , a drive member and an abutment , further comprising at least one spring between the drive member and the abutment , and at least one drive member sensor , which is designed to transmit sensor signals to the control unit , depending on the force applied to the drive member , against the force of the spring and a relative movement associated therewith between the drive member and the abutment , the drive member sensor being designed to generate different force-dependent sliding sensor signals depending on the force applied to the drive member , which can be evaluated by the control unit for controlling an actuator of the motor vehicle drive assembly, and the sensor signal being designed as a function of the force applied, for example the sensor signal depends linearly on the force applied, whereby a sensor characteristic is formed that can be stored in the control unit and can be mapped by the control unit, characterized in that the actuator has a closing drive for a motor vehicle flap or a motor vehicle door lock , the control unit being arranged to derive an anti-trap signal or an overload signal for the actuator from the sensor signals, and the control unit being further designed to evaluate additional sensor signals of a catch sensor of a catch as a component of a locking mechanism inside the motor vehicle door lock as an additional signal in order to adapt the sensor characteristic of the drive element sensor stored and mapped in the control unit. the drive member sensor being designed to generate different force-dependent sliding sensor signals depending on the force applied to the drive member , which can be evaluated by the control unit for controlling an actuator of the motor vehicle drive assembly, and the sensor signal being designed as a function of the force applied, for example the sensor signal depends linearly on the force applied, whereby a sensor characteristic is formed that can be stored in the control unit and can be mapped by the control unit, characterized in that the actuator has a closing drive for a motor vehicle flap or a motor vehicle door lock , the control unit being arranged to derive an anti-trap signal or an overload signal for the actuator from the sensor signals, and the control unit being further designed to evaluate additional sensor signals of a catch sensor of a catch as a component of a locking mechanism inside the motor vehicle door lock as an additional signal in order to adapt the sensor characteristic of the drive element sensor stored and mapped in the control unit.
A production process comprising an in-flight formation process, the in-flight formation process comprising: providing in a gas atmosphere (i) a first liquid jet directed with a first jet direction to a collision point in said gas atmosphere , wherein the first liquid jet comprises a first liquid material , and (ii) a second liquid jet directed with a second jet direction to the collision point , wherein the second liquid jet comprises a second liquid material , to provide a third jet comprising a coalesced third material at the collision point propagating in a third direction , wherein the first jet direction of the first liquid jet and the second jet direction of the second liquid jet have a mutual angle larger than 0° and equal to or smaller than 75°, wherein the first liquid material and the second liquid material have different surface tensions, wherein a ratio of the different surface tensions is at least 1.05 and not more than 7, wherein the production process further comprises: - providing a vibration to one of the first liquid jet and the second liquid jet for providing one of the first liquid jet and the second liquid jet as interrupted liquid jet at the collision point , or - providing a vibration to one of the first liquid jet and the second liquid jet for providing one of the first liquid jet and the second liquid jet as uninterrupted liquid jet having variable width (Wj) in a direction perpendicular to the respective jet direction at the collision point ; wherein the vibration is provided by means of an actuator comprising an element configured to vibrate at a frequency selected from the range of 100 Hz-1 MHz. - providing a vibration to one of the first liquid jet and the second liquid jet for providing one of the first liquid jet and the second liquid jet as interrupted liquid jet at the collision point , or - providing a vibration to one of the first liquid jet and the second liquid jet for providing one of the first liquid jet and the second liquid jet as uninterrupted liquid jet having variable width (Wj) in a direction perpendicular to the respective jet direction at the collision point ;
Apparatus , configured and adapted for scalding slaughtered poultry , comprising an elongate scalding tank , which is closed on all sides by side walls and end walls and at the bottom by a base wall and which is open at the top, for receiving and for holding a liquid scalding medium , a transport means , arranged above the scalding tank , for transporting the poultry in a hanging manner within the scalding tank along a scalding channel formed of a plurality of scalding channel sections from an input region (E) to an output region (A), wherein at least two transport lines for the poultry are formed within the scalding tank , each from one end wall of the scalding tank to the opposite end wall of the scalding tank , and the transport lines are connected to one another by means of curved connecting lines for 180-degree deflection, wherein each transport line (21 to 23) and each connecting line is delimited by two partition walls , which are arranged spaced apart from one another transversely to the transport direction T, and a base wall to form linear scalding channel sections which are open at the top and curved scalding channel sections which are open at the top, wherein partition walls of adjacent scalding channel sections and partition walls that are situated adjacent to outside walls of the scalding tank are arranged spaced apart from one another to form a free space for the scalding medium , wherein means for supplying and/or warming the scalding medium are associated at least with the free spaces of adjacent scalding channel sections, and wherein there is formed beneath at least parts of the scalding channel , namely at least between the base walls of the linear scalding channel sections and the base wall of the scalding tank , a receiving compartment for scalding medium which, together with the free spaces , forms a common chamber with which there is associated at least one turbulence-generating body for generating turbulence and/or flow of the scalding medium in the scalding tank , characterised in that the receiving compartment extends beneath the entire scalding channel , that is to say between the base walls of the linear and of the curved scalding channel sections on the one hand and the base wall of the scalding tank on the other hand, wherein there is arranged in the receiving compartment , which as a result extends into the region of the curved scalding channel sections, at least one pump device as a turbulence-generating body for forming a pressure chamber which acts along the entire scalding channel .
A one-dimensional measuring machine comprising: a probe configured to contact an object to be measured in one direction; a movement mechanism that movably supports the probe in the one direction; a detector configured to detect a current position of the probe in the one direction; a measurement unit configured to take a selected origin as a used origin among a plurality of the origins including an absolute origin and a relative origin set in a measurement range in the one direction in which the probe is permitted to be disposed, the measurement unit being configured to measure a distance between the used origin and the current position of the probe detected by the detector ; a display unit that includes a display screen ; and a display control unit configured to display a scale bar indicative of the measurement range on the display screen , the display control unit being configured to display an origin mark at a position corresponding to the used origin on the scale bar ; wherein the origin mark is configured to enable a user to identify the used origin on the scale bar . a probe configured to contact an object to be measured in one direction; a movement mechanism that movably supports the probe in the one direction; a detector configured to detect a current position of the probe in the one direction; a measurement unit configured to take a selected origin as a used origin among a plurality of the origins including an absolute origin and a relative origin set in a measurement range in the one direction in which the probe is permitted to be disposed, the measurement unit being configured to measure a distance between the used origin and the current position of the probe detected by the detector ; a display unit that includes a display screen ; and a display control unit configured to display a scale bar indicative of the measurement range on the display screen , the display control unit being configured to display an origin mark at a position corresponding to the used origin on the scale bar ; wherein the origin mark is configured to enable a user to identify the used origin on the scale bar .
A wound care arrangement having a covering unit that can be attached to the skin surrounding a wound and used to produce an enclosed wound space comprising the wound, and a suction connection across which a negative pressure can be generated in the wound space, wherein the covering unit comprises a film tube into which a human extremity can be introduced, characterised in that the covering unit is at least in sections water vapour permeable.
A method comprising: introducing a hydrophobically and cationically modified relative permeability modifier into a portion of a subterranean formation, wherein the hydrophobically and cationically modified relative permeability modifier comprises a polymerization reaction product of a hydrophilic monomer with a hydrophobically modified hydrophilic monomer and a cationic compound, wherein the hydrophilic monomer is polydimethylaminoethyl methacrylate, the hydrophobically modified hydrophilic monomer is hexadecyl bromide, and the cationic compound is propyl iodide.
A network cabinet comprising: a bottom portion; a center portion including a plurality of equipment rails that define a plurality of rack unit spaces; a top portion including a first front-to-back beam and a second front-to-back beam ; and a network appliance mounting kit positioned in said top portion, said network appliance mounting kit including a mounting feature for attaching a network appliance of rectangular cuboidal geometry to said network cabinet such that said network appliance does not interfere with any one of said plurality of rack unit spaces, the mounting feature including a first appliance bracket attached to said first front-to-back beam and a second appliance bracket attached to said second front-to-back beam ; an appliance mount plate comprising a securing section , an exhaust section configured to allow the passage of exhaust air and a mounting section , said appliance mount plate being attached to at least one of said first appliance bracket and said second appliance bracket via the securing section , said mounting section of the appliance mount plate being configured for attaching said network appliance thereto vertically relative to said network cabinet . a bottom portion; a center portion including a plurality of equipment rails that define a plurality of rack unit spaces; a top portion including a first front-to-back beam and a second front-to-back beam ; and a network appliance mounting kit positioned in said top portion, said network appliance mounting kit including a mounting feature for attaching a network appliance of rectangular cuboidal geometry to said network cabinet such that said network appliance does not interfere with any one of said plurality of rack unit spaces, the mounting feature including a first appliance bracket attached to said first front-to-back beam and a second appliance bracket attached to said second front-to-back beam ; an appliance mount plate comprising a securing section , an exhaust section configured to allow the passage of exhaust air and a mounting section , said appliance mount plate being attached to at least one of said first appliance bracket and said second appliance bracket via the securing section , said mounting section of the appliance mount plate being configured for attaching said network appliance thereto vertically relative to said network cabinet .
An optical communications apparatus , comprising: a subsea cable ; a first and second landing station , a splitter/combiner unit connected to an end of the subsea cable , first and second legs connecting the splitter/combiner unit to the first and second landing station respectively, and power feed equipment for providing electrical power to the electrical conductor of the first and/or second leg ; wherein: each of the subsea cable and first and second legs comprise an optical fibre for carrying optical communications and an electrical conductor for carrying electrical power; the splitter/combiner unit is operable to duplicate optical signals carried by the subsea cable in both the first and second legs ; the first leg and second leg are configured to provide redundant electrical power connections to the subsea cable via the splitter/combiner unit ; the power feed equipment is configured to detect a shunt fault in either of the first and second leg ; and when the power feed equipment is not using the first leg to supply power to the subsea cable , the power feed equipment is configured to provide a test voltage to the first leg , and to detect leakage current arising from the test voltage due to a shunt fault in the first leg ; and when the power feed equipment is not using the second leg to supply power to the subsea cable , the power feed equipment is configured to provide a test voltage to the second leg , and to detect leakage current arising from the test voltage due to a shunt fault in the second leg . each of the subsea cable and first and second legs comprise an optical fibre for carrying optical communications and an electrical conductor for carrying electrical power; the splitter/combiner unit is operable to duplicate optical signals carried by the subsea cable in both the first and second legs ; the first leg and second leg are configured to provide redundant electrical power connections to the subsea cable via the splitter/combiner unit ; the power feed equipment is configured to detect a shunt fault in either of the first and second leg ; and when the power feed equipment is not using the first leg to supply power to the subsea cable , the power feed equipment is configured to provide a test voltage to the first leg , and to detect leakage current arising from the test voltage due to a shunt fault in the first leg ; and when the power feed equipment is not using the second leg to supply power to the subsea cable , the power feed equipment is configured to provide a test voltage to the second leg , and to detect leakage current arising from the test voltage due to a shunt fault in the second leg .