mhurhangee/ep-ind-claims huggingface dataset:
A mobile device (104-1-104-N) for use with an apparatus (108-1-108-N, 200) for generating a plurality of geo-fences to provide a notification to the mobile device (104-1-104-N) when the mobile device (104-1-104-N) enters or resides in an area encompassed by a geo-fence, the apparatus (108-1-108-N, 200) being configured to obtain a trigger generated in response to a change in a geo-fence criteria, and to define one or more boundaries of each geo-fence based on the geo-fence criteria in response to obtaining the trigger; the mobile device (104-1-104-N) being configured to: process the plurality of geo-fences differently based on a number of applications that actively utilize geo-fences on the mobile device (104-1-104-N) to prevent the mobile device (104-1-104-N) from being overloaded with notifications for geo-fences, wherein, when the mobile device (104-1-104-N) is executing a large number of applications that are actively utilizing geo-fences and crosses a boundary of a geo-fence, the mobile device (104-1-104-N) is configured to delay recognition of the geo-fence until the mobile device (104-1-104-N) is closer to a center of an area defined by the geo-fence so that the recognized geo-fence encompasses a smaller area than the geo-fence when the mobile device (104-1-104-N) is executing a small number of applications that actively utilize geo-fences.
Lipid composition comprising between 0.1 and 30 wt.% of a structuring agent dispersed in between 70 and 99.9 wt.% edible fat wherein the structuring agent comprises at least 10 wt.% of diacylglycerols having a very long chain saturated fatty acid residue with a chain length between 26 and 32 carbon atoms inclusive.
An electrical energy generator, which comprises: a capture element and, additionally, at least one generator element, wherein the capture element is configured to be situated in a fluid and configured so that, when said fluid is moved, it generates vortices in said fluid in such a way that a lift force is generated on said capture element; wherein said generator element is a generator piezoelectric element; wherein the capture element is associated to the generator element so that, when the generator is in a mode of electrical energy generation, the capture element, repetitively and in response to the lift force, actuates on the generator element in such a way that said generator element produces electrical energy; wherein the capture element includes at least a first part and a second part, said first part being arranged so that said lift force acts on said first part, said second part being more flexible than said first part and being arranged to connect said first part to a base so that when said lift force acts on said capture element, said capture element sways with regard to said base, wherein the second part is made of a different material or of different materials than the first part. a capture element and, additionally, at least one generator element, wherein the capture element is configured to be situated in a fluid and configured so that, when said fluid is moved, it generates vortices in said fluid in such a way that a lift force is generated on said capture element; wherein said generator element is a generator piezoelectric element; wherein the capture element is associated to the generator element so that, when the generator is in a mode of electrical energy generation, the capture element, repetitively and in response to the lift force, actuates on the generator element in such a way that said generator element produces electrical energy; wherein the capture element includes at least a first part and a second part, said first part being arranged so that said lift force acts on said first part, said second part being more flexible than said first part and being arranged to connect said first part to a base so that when said lift force acts on said capture element, said capture element sways with regard to said base, wherein the second part is made of a different material or of different materials than the first part.
A suspended transport vehicle configured to travel along a track supported by a ceiling and to transfer an article to a shelf of a rack installed on a floor, the suspended transport vehicle comprising: a traveling part (21A, 21B) including a wheel configured to travel along the track and a driving part configured to drive the wheel; a ceiling-side member suspended downwards from the traveling part and including a transferring part configured to transfer the article to the shelf of the rack; a floor-side member provided so as to be capable of relative movement with respect to the ceiling-side member and including a contacting part in contact with the floor or a member installed on the floor; and a distance detecting part configured to detect a relative distance between the ceiling-side member and the floor-side member. a traveling part (21A, 21B) including a wheel configured to travel along the track and a driving part configured to drive the wheel; a ceiling-side member suspended downwards from the traveling part and including a transferring part configured to transfer the article to the shelf of the rack; a floor-side member provided so as to be capable of relative movement with respect to the ceiling-side member and including a contacting part in contact with the floor or a member installed on the floor; and a distance detecting part configured to detect a relative distance between the ceiling-side member and the floor-side member.
Hollow body with at least one union for a hose-shaped or tubular connecting body which can be fixed to or on the union in an axial connecting position, - wherein the union completely formed as a plastic part has a profile with increased dimensional stability for dissipating radial forces at least within a region which can extend the connecting body or can be overlapped axially by the connecting body, - wherein the union comprises a double circumferential wall with reinforcements arranged between the two walls, - wherein the reinforcements are formed as webs or axial walls connecting the circumferential walls which are arranged radially in a spoke-like manner when viewed along the axis of the union, characterised in that empty spaces remaining between the circumferential walls and/or the webs or axial walls communicate at their one axial end with the inside of the union and/or form resonator chambers. - wherein the union completely formed as a plastic part has a profile with increased dimensional stability for dissipating radial forces at least within a region which can extend the connecting body or can be overlapped axially by the connecting body, - wherein the union comprises a double circumferential wall with reinforcements arranged between the two walls, - wherein the reinforcements are formed as webs or axial walls connecting the circumferential walls which are arranged radially in a spoke-like manner when viewed along the axis of the union,
A method comprising: causing, by a network element of a wireless network, an allocation of a first resource set to an entity comprising at least a first virtual network function, a second virtual network function and a virtual control function for controlling virtual network functions of said entity, wherein at least a subset of the first resource set provides the first virtual network function; causing an allocation of a second resource set to said entity, wherein the first virtual network function is active and the second virtual network function is inactive; and causing an activation of said inactive virtual network function; characterized in that the second resource set is reserved for said entity and provides resources for said second virtual network function, wherein the causing the activation of said inactive virtual network function comprises causing an activation of the second virtual network function on the second resource set. causing, by a network element of a wireless network, an allocation of a first resource set to an entity comprising at least a first virtual network function, a second virtual network function and a virtual control function for controlling virtual network functions of said entity, wherein at least a subset of the first resource set provides the first virtual network function; causing an allocation of a second resource set to said entity, wherein the first virtual network function is active and the second virtual network function is inactive; and causing an activation of said inactive virtual network function; characterized in that the second resource set is reserved for said entity and provides resources for said second virtual network function, wherein the causing the activation of said inactive virtual network function comprises causing an activation of the second virtual network function on the second resource set.
A conduit guide, comprising: a main body including a first portion, an intermediate flexible portion and a second portion movable relative to the first portion via the flexible portion, the first portion being configured for attachment to a dental delivery unit and to extend along an inclined longitudinal axis, the main body defining a channel along at least a portion of a length of the main body that is configured to receive a utility conduit; and a positioning assembly at least partially disposed within the flexible portion of the main body, the positioning assembly including a first attachment member, a second attachment member, a biasing member (180 or 182), and an adjustment member (163 or 173), the biasing member being coupled to the first attachment member and to the second attachment member, and extending between the first attachment member and the second attachment member, the adjustment member being coupled to the biasing member and configured to axially move the biasing member to adjust a position of the second portion relative to the first portion when the conduit guide is mounted to the dental delivery unit; wherein the conduit guide is configured such that at least the adjustment member of the positioning assembly can be selectively accessed and enclosed within the main body. a main body including a first portion, an intermediate flexible portion and a second portion movable relative to the first portion via the flexible portion, the first portion being configured for attachment to a dental delivery unit and to extend along an inclined longitudinal axis, the main body defining a channel along at least a portion of a length of the main body that is configured to receive a utility conduit; and a positioning assembly at least partially disposed within the flexible portion of the main body, the positioning assembly including a first attachment member, a second attachment member, a biasing member (180 or 182), and an adjustment member (163 or 173), the biasing member being coupled to the first attachment member and to the second attachment member, and extending between the first attachment member and the second attachment member, the adjustment member being coupled to the biasing member and configured to axially move the biasing member to adjust a position of the second portion relative to the first portion when the conduit guide is mounted to the dental delivery unit; wherein the conduit guide is configured such that at least the adjustment member of the positioning assembly can be selectively accessed and enclosed within the main body.
Method for updating a digital map stored in a vehicle, wherein the map comprises a multiplicity of map objects (123, 124, 125), a map object (123, 124, 125) being a road section or a point of interest, wherein an object identifier and a version number are assigned to each map object (123, 124, 125), having the steps of - determining, in the vehicle, a first map object to be updated, - transmitting a request data record for updating the first map object from the vehicle to a central computer, wherein the request data record comprises the object identifier and the version number of the first map object, - determining, in the central computer, an operation for changing the first map object in comparison with that version of the first map object which is identified by the transmitted version number, - determining, in the central computer, further map objects (124, 125) changed during the change operation on the basis of a change operation data record, - compiling, in the central computer, an update data record comprising ∘ a current version of the first map object, ∘ the version number of the current version of the first map object, and ∘ the respective object identifier and the respective version number of the further map objects (124, 125), - transmitting the update data record from the central computer to the vehicle. - determining, in the vehicle, a first map object to be updated, - transmitting a request data record for updating the first map object from the vehicle to a central computer, wherein the request data record comprises the object identifier and the version number of the first map object, - determining, in the central computer, an operation for changing the first map object in comparison with that version of the first map object which is identified by the transmitted version number, - determining, in the central computer, further map objects (124, 125) changed during the change operation on the basis of a change operation data record, - compiling, in the central computer, an update data record comprising ∘ a current version of the first map object, ∘ the version number of the current version of the first map object, and ∘ the respective object identifier and the respective version number of the further map objects (124, 125), ∘ a current version of the first map object, ∘ the version number of the current version of the first map object, and ∘ the respective object identifier and the respective version number of the further map objects (124, 125), - transmitting the update data record from the central computer to the vehicle.
A method of synthesizing a zeolite having the structure of SSZ-31, the method comprising: (a) preparing a reaction mixture comprising: a source of silicon oxide; optionally, a source of aluminum oxide; a structure directing agent comprising 1-cyclohexylmethyl-1-ethylpiperidinium cations; hydroxide ions; and water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to form crystals of the zeolite wherein the reaction mixture comprises, in terms of molar ratios, the following: SiO 2 /Al 2 O 3 100 to 500 Q/SiO 2 0.10 to 0.45 OH/SiO 2 0.20 to 0.45 H 2 O/SiO 2 15 to 50. (a) preparing a reaction mixture comprising: a source of silicon oxide; optionally, a source of aluminum oxide; a structure directing agent comprising 1-cyclohexylmethyl-1-ethylpiperidinium cations; hydroxide ions; and water; and a source of silicon oxide; optionally, a source of aluminum oxide; a structure directing agent comprising 1-cyclohexylmethyl-1-ethylpiperidinium cations; hydroxide ions; and water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to form crystals of the zeolite wherein the reaction mixture comprises, in terms of molar ratios, the following: SiO 2 /Al 2 O 3 100 to 500 Q/SiO 2 0.10 to 0.45 OH/SiO 2 0.20 to 0.45 H 2 O/SiO 2 15 to 50.
A fluid cylinder with a piston rod that is guided in a cylinder casing and on which a marking is provided with equidistantly arranged marks, and with an optical sensor unit directed toward the marking, which has more than two equidistantly arranged optoelectronic sensor elements (20a, 20b, 20c) by means of which a binary output signal can be generated in each case, wherein the axial spacing between the optoelectronic sensor elements (20a, 20b, 20c) and the marks is dimensioned such that each binary output signal possesses a predetermined phase shift relative to the chronologically following output signal, and the marking has at least one reference mark for which an output signal exists in all of the optoelectronic sensor elements, characterized in that the sensor unit possesses an error detection which converts the incoming binary output signals from the optoelectronic sensor elements (20a, 20b, 20c) into a Gray code and, if there is a change in the output signals by more than one bit, recognizes a faulty signal, and if all the sensor elements respond, also recognizes the at least one reference mark.
Method for multi-layer printing on a support, like a wafer, a substrate or thin sheet made of silicon, comprising: a plurality of printing steps (11, 21, 31), comprising a first printing step and further subsequent printing steps (21, 31), made in corresponding printing stations (50, 60, 70) and a plurality of alignment steps (13, 23), each one provided upstream of a corresponding of said further subsequent printing steps (21, 31) following the first printing step, wherein alignment devices (54, 64) effect the correct positioning of the support and/or the adjustment of said printing station (50, 60, 70) in order to carry out the subsequent printing step, wherein said method comprises, downstream of each printing step (11, 21, 31) and upstream of each alignment step (13, 23), a control step (12, 22, 32) in which detection devices (52, 62, 72) detect the position of the layer printed on the support and/or the position of said support on the work plane, and at least a command and control unit (53, 63, 73, 120) compares at least one of said positions detected with predefined positions and/or with the positions detected in the previous control step, and wherein the results of said comparison are used in subsequent alignment steps (13, 23), characterized in that the positions detected in each control step (12, 22, 32) are used by said command and control unit (53, 63, 73, 120) for a subsequent work cycle for multi-layer printing on a subsequent support in a respective alignment step prior to a respective one of each said control step. a plurality of printing steps (11, 21, 31), comprising a first printing step and further subsequent printing steps (21, 31), made in corresponding printing stations (50, 60, 70) and a plurality of alignment steps (13, 23), each one provided upstream of a corresponding of said further subsequent printing steps (21, 31) following the first printing step, wherein alignment devices (54, 64) effect the correct positioning of the support and/or the adjustment of said printing station (50, 60, 70) in order to carry out the subsequent printing step, wherein said method comprises, downstream of each printing step (11, 21, 31) and upstream of each alignment step (13, 23), a control step (12, 22, 32) in which detection devices (52, 62, 72) detect the position of the layer printed on the support and/or the position of said support on the work plane, and at least a command and control unit (53, 63, 73, 120) compares at least one of said positions detected with predefined positions and/or with the positions detected in the previous control step, and wherein the results of said comparison are used in subsequent alignment steps (13, 23), characterized in that the positions detected in each control step (12, 22, 32) are used by said command and control unit (53, 63, 73, 120) for a subsequent work cycle for multi-layer printing on a subsequent support in a respective alignment step prior to a respective one of each said control step.
A projection display apparatus configured to modulate light radiated from a lamp to project the modulated light, comprising: a cooling element for cooling said lamp; a management section for managing the temperature of said lamp, characterised in that said management section including a capacitor and a resistor and managing the temperature of said lamp, which temperature decreases generally natural-logarithmically since turn-off of power supply to said lamp, with an output voltage of said capacitor, which voltage is charged in association with turn-on of power supply to said lamp and, after turn-off of said lamp, decreases generally natural-logarithmically by discharge of said capacitor through said resistor; and a controller for controlling restart of said lamp after turn-off of said lamp based on an output voltage of said management section, when the temperature of said lamp is higher than a predetermined temperature, said controller is configured to turn on said lamp after causing said cooling element to cool said lamp, and when the temperature of said lamp is lower than said predetermined temperature, said controller turning on said lamp without causing said cooling element to cool said lamp prior to turn on of said lamp. a cooling element for cooling said lamp; a management section for managing the temperature of said lamp, characterised in that said management section including a capacitor and a resistor and managing the temperature of said lamp, which temperature decreases generally natural-logarithmically since turn-off of power supply to said lamp, with an output voltage of said capacitor, which voltage is charged in association with turn-on of power supply to said lamp and, after turn-off of said lamp, decreases generally natural-logarithmically by discharge of said capacitor through said resistor; and a controller for controlling restart of said lamp after turn-off of said lamp based on an output voltage of said management section, when the temperature of said lamp is higher than a predetermined temperature, said controller is configured to turn on said lamp after causing said cooling element to cool said lamp, and when the temperature of said lamp is lower than said predetermined temperature, said controller turning on said lamp without causing said cooling element to cool said lamp prior to turn on of said lamp.
A vacuum pump comprising a pump rotor and a pump stator, said pump rotor comprising a transponder provided with a rotor antenna and said pump stator comprising a reader provided with a stator antenna for transmitting data from the pump rotor to the pump stator, characterized in that the pump rotor includes an identity protection memory with at least one item of rotor information stored therein which can be transmitted to the reader via the transponder, that a control unit is provided to allow for operation of the vacuum pump only if said rotor information satisfies a predetermined criterion, and that the pump stator includes a parameter memory with at least one item of stator information stored therein, and that said predetermined criterion consists in that said rotor information and said stator information form a predetermined, approved pair of information items.
Monitoring and warning system for fireplaces in buildings comprising at least one controller, at least three heat sensors connected to the controller, at least one acoustic or visual warning device, wherein the controller comprises data transmitting means and data recording means, characterized in that the three sensors are placed close together on the outer wall of a fireplace at the intersection between the fireplace and a beam / construction member of the building and at least one sensor, when measuring a temperature above 40°C, turns on at least one additional sensor and the controller, and in that the controller sends data as soon as at least two sensors sense that a predetermined level of 110°C has been exceeded or a difference of more than 20° exists between the sensors, and in that the controller comprises a self-test system which sends data as soon as measurement difference between one sensor and the other two sensors exceeds 20°.