mhurhangee/patent-ind-claim-en huggingface dataset:
Method for manufacturing a metal part with bi-metallic characteristic in an additive manufacturing (AM) process, comprising the steps of: a) providing a first powder of a metal with a first thermal expansion coefficient; b) providing a second powder of a metal with a second thermal expansion coefficient different from said first thermal expansion coefficient; c) manufacturing a first pure metal layer by successively melting layers of said first powder alone; d) manufacturing on said first pure metal layer a mixed layer by successively melting layers of a third powder being a mixture of said first and second powders, whereby the percentage of said first powder decreases from 100% to 0% with increasing thickness of said mixed layer , and whereby the percentage of said second powder increases at the same time from 0% to 100%; and e) manufacturing a second pure metal layer by successively melting layers of said second powder alone; wherein the metal with the larger thermal expansion coefficient is used for a colder side of the metal part and the metal with the lower thermal expansion is used for a hotter side of the metal part, wherein the intended deformation in a hot state of the metal part defines the change point from one powder to the other, and wherein the intended deformation in the hot state is optimized to be zero with minimal deviation from the design geometry, or a certain intended deformation is generated to optimize contact pressure and wear. a) providing a first powder of a metal with a first thermal expansion coefficient; b) providing a second powder of a metal with a second thermal expansion coefficient different from said first thermal expansion coefficient; c) manufacturing a first pure metal layer by successively melting layers of said first powder alone; d) manufacturing on said first pure metal layer a mixed layer by successively melting layers of a third powder being a mixture of said first and second powders, whereby the percentage of said first powder decreases from 100% to 0% with increasing thickness of said mixed layer , and whereby the percentage of said second powder increases at the same time from 0% to 100%; and e) manufacturing a second pure metal layer by successively melting layers of said second powder alone;
A method for wireless communication, comprising: determining whether a wireless device desires dynamic sounding reference signal, SRS, resources in addition to periodic SRS resources, wherein the determining includes estimating an operational parameter for a communication channel with the wireless device; and signaling , based on the determination, an indication which dynamic SRS resource from a set of dynamic SRS time/frequency transmission resources is allocated to the wireless device in a portion of an uplink or downlink scheduling grant. determining whether a wireless device desires dynamic sounding reference signal, SRS, resources in addition to periodic SRS resources, wherein the determining includes estimating an operational parameter for a communication channel with the wireless device; and signaling , based on the determination, an indication which dynamic SRS resource from a set of dynamic SRS time/frequency transmission resources is allocated to the wireless device in a portion of an uplink or downlink scheduling grant.
A system comprising: - a user device comprising: a detection unit adapted to detect a charged status of a battery of the user device ; an interface adapted to prompt a user of the user device to define credentials when the charged status of the battery reaches below a pre-determined threshold and to receive the defined credentials from the user ; and a communication unit adapted to transmit the defined credentials to a server ; and - an accessing device comprising: a receiver adapted to receive the defined credentials from the server ; an interface adapted to receive credentials from the user ; a processor adapted to validate the credentials with the defined credentials; and an access unit adapted to provide access of the accessing device to the user based on the validation, characterized in that the detection of the charged status of the battery reaching below a pre-determined threshold is determined based on a location of the user device and a time required to reach the accessing device . - a user device comprising: a detection unit adapted to detect a charged status of a battery of the user device ; an interface adapted to prompt a user of the user device to define credentials when the charged status of the battery reaches below a pre-determined threshold and to receive the defined credentials from the user ; and a communication unit adapted to transmit the defined credentials to a server ; and a detection unit adapted to detect a charged status of a battery of the user device ; an interface adapted to prompt a user of the user device to define credentials when the charged status of the battery reaches below a pre-determined threshold and to receive the defined credentials from the user ; and a communication unit adapted to transmit the defined credentials to a server ; and - an accessing device comprising: a receiver adapted to receive the defined credentials from the server ; an interface adapted to receive credentials from the user ; a processor adapted to validate the credentials with the defined credentials; and an access unit adapted to provide access of the accessing device to the user based on the validation, a receiver adapted to receive the defined credentials from the server ; an interface adapted to receive credentials from the user ; a processor adapted to validate the credentials with the defined credentials; and an access unit adapted to provide access of the accessing device to the user based on the validation,
A method for providing a system management client engine, comprising: designating a first executable object as a trusted installer; assigning an identification token to the trusted installer; assigning the identification token to a second executable object, wherein the first executable object has caused a launching of the second executable object; adding the second executable object to a whitelist, wherein the whitelist persists an event that breaks inheritance; and thereby granting the second executable object trusted installer status. designating a first executable object as a trusted installer; assigning an identification token to the trusted installer; assigning the identification token to a second executable object, wherein the first executable object has caused a launching of the second executable object; adding the second executable object to a whitelist, wherein the whitelist persists an event that breaks inheritance; and thereby granting the second executable object trusted installer status.
Medical equipment comprising a fluid path, said fluid path at least partly consisting of a fluid path with a need for regular thermal disinfection , the medical equipment further comprising: an inlet adapted to receive fluid; an actuator configured to control the flow of the fluid from the inlet to a connector , the connector being configured to connect to the fluid path with a need for regular disinfection; a temperature sensor configured to measure the temperature of the fluid in the fluid path; a control unit connected to the actuator and the temperature sensor, the control unit being configured to control the fluid flow by means of the actuator, and to read the temperature measured by the temperature sensor; wherein the control unit is configured to receive and/or retrieve information representing a set disinfection dose; and the control unit is configured to start the disinfection of the fluid path to be disinfected by controlling the actuator to enable fluid from the inlet to flow to the connector and further into the fluid path with a need for regular disinfection; and the temperature sensor is located at a location of the fluid path which experiences the lowest, or one of the lowest, temperatures during thermal disinfection; and the control unit is configured to read the temperature as measured by the temperature sensor during disinfection, and to calculate an achieved disinfection dose based on the read temperature, and to compare the achieved disinfection dose with the set disinfection dose, and to discontinue an ongoing disinfection if the achieved disinfection dose equals or exceeds the set disinfection dose. an inlet adapted to receive fluid; an actuator configured to control the flow of the fluid from the inlet to a connector , the connector being configured to connect to the fluid path with a need for regular disinfection; a temperature sensor configured to measure the temperature of the fluid in the fluid path; a control unit connected to the actuator and the temperature sensor, the control unit being configured to control the fluid flow by means of the actuator, and to read the temperature measured by the temperature sensor; wherein the control unit is configured to receive and/or retrieve information representing a set disinfection dose; and the control unit is configured to start the disinfection of the fluid path to be disinfected by controlling the actuator to enable fluid from the inlet to flow to the connector and further into the fluid path with a need for regular disinfection; and the temperature sensor is located at a location of the fluid path which experiences the lowest, or one of the lowest, temperatures during thermal disinfection; and the control unit is configured to read the temperature as measured by the temperature sensor during disinfection, and to calculate an achieved disinfection dose based on the read temperature, and to compare the achieved disinfection dose with the set disinfection dose, and to discontinue an ongoing disinfection if the achieved disinfection dose equals or exceeds the set disinfection dose.
Method for protecting a computing unit configured for executing at least one cryptographic computing operation against cryptoanalytic attacks, characterized in that the at least one cryptographic computing operation is implemented by means of a soft computing technique , wherein the soft computing technique comprises an artificial neural network , wherein the at least one cryptographic computing operation is a step of an AES block cipher algorithm, and wherein the at least one cryptographic computing operation comprises a SubBytes step and/or an AddRoundKey step. in that the at least one cryptographic computing operation is implemented by means of a soft computing technique , wherein the soft computing technique comprises an artificial neural network , wherein the at least one cryptographic computing operation is a step of an AES block cipher algorithm, and wherein the at least one cryptographic computing operation comprises a SubBytes step and/or an AddRoundKey step.
Optically variable security element having a first and a second security feature , wherein - microreflectors (55; 65; 75; 851) of the first security feature are oriented in such a way that, when the security element is tilted about a predefined axis, a motif of the first security feature is visible to the observer only in a first tilt angle range (250; 950), wherein the motif of the first security feature becomes visible in a first surface region; - microreflectors (56; 66; 76; 86) of the second security feature are oriented in such a way that, when the security element is tilted about the predefined axis, a motif of the second security feature is visible to the observer in a second tilt angle range (260; 960), wherein the second tilt angle range (260; 960) comprises the first tilt angle range (250; 950), and wherein during the tilting the motif of the second security feature moves over a second surface region which at least partially overlaps the first surface region; characterized in that the second tilt angle range (260; 960) is significantly greater than the first tilt angle range (250; 950), preferably is at least four times the size, and in diffuse light the motif of the first security feature has a visibly increased contour sharpness in comparison to the motif of the second security feature , wherein the contour sharpness is a measure for the perceptibility of the position of the contour of the security feature for the observer. - microreflectors (55; 65; 75; 851) of the first security feature are oriented in such a way that, when the security element is tilted about a predefined axis, a motif of the first security feature is visible to the observer only in a first tilt angle range (250; 950), wherein the motif of the first security feature becomes visible in a first surface region; - microreflectors (56; 66; 76; 86) of the second security feature are oriented in such a way that, when the security element is tilted about the predefined axis, a motif of the second security feature is visible to the observer in a second tilt angle range (260; 960), wherein the second tilt angle range (260; 960) comprises the first tilt angle range (250; 950), and wherein during the tilting the motif of the second security feature moves over a second surface region which at least partially overlaps the first surface region; characterized in that the second tilt angle range (260; 960) is significantly greater than the first tilt angle range (250; 950), preferably is at least four times the size, and in diffuse light the motif of the first security feature has a visibly increased contour sharpness in comparison to the motif of the second security feature , wherein the contour sharpness is a measure for the perceptibility of the position of the contour of the security feature for the observer.
A method of filling a tank volume of a cartridge with a liquid vaporizable material, wherein the cartridge includes a porous wick at an end of the tank volume, the method comprising: positioning a bottom surface of the cartridge on a first surface so that the porous wick is positioned on a top surface opposite the bottom surface, wherein the tank volume includes an elastomeric portion on the bottom surface, or positioning the bottom surface of the cartridge on the first surface so that the porous wick is positioned on a first side surface above the bottom surface, wherein the tank volume includes the elastomeric portion on a second side surface opposite the first side surface; inserting a needle into the tank volume through the elastomeric portion; injecting the liquid vaporizable material into the tank volume; and venting air out of the tank volume through the porous wick thereby allowing filling of the tank volume with the liquid vaporizable material. positioning a bottom surface of the cartridge on a first surface so that the porous wick is positioned on a top surface opposite the bottom surface, wherein the tank volume includes an elastomeric portion on the bottom surface, or positioning the bottom surface of the cartridge on the first surface so that the porous wick is positioned on a first side surface above the bottom surface, wherein the tank volume includes the elastomeric portion on a second side surface opposite the first side surface; inserting a needle into the tank volume through the elastomeric portion; injecting the liquid vaporizable material into the tank volume; and venting air out of the tank volume through the porous wick thereby allowing filling of the tank volume with the liquid vaporizable material.
A profile clamp comprising a clamping band and a first tensioning head arranged at a first end and a second tensioning head arranged at a second end of the clamping band , wherein the first tensioning head comprises a first opening and the second tensioning head comprises a second opening ; the profile clamp further comprising a screw , comprising a screw head and a screw body , wherein the screw body is configured to be guided through the first opening and the second opening ; the profile clamp further comprising a threaded nut configured to be arranged on the screw body when the screw body is guided through the first opening and the second opening , characterized in that the screw body comprises a first threaded section and a second threaded section and a section of reduced diameter therebetween.
A fuel supply system for a turbomachine , comprising: a starter circuit comprising at least one starter injector , at least one first hydraulic resistance , a purge circuit comprising a conduit including an aperture opening outside of the supply system , wherein the purge circuit is configured to flow purge air between the starter injector and the aperture , through the first hydraulic resistance , characterised in that the supply system comprises a pressure representative value measuring means configured to measure a pressure representative value (P m ) between the starter injector and the first hydraulic resistance , during a purge air flow between the starter injector and the first hydraulic resistance . a starter circuit comprising at least one starter injector , at least one first hydraulic resistance , a purge circuit comprising a conduit including an aperture opening outside of the supply system , wherein the purge circuit is configured to flow purge air between the starter injector and the aperture , through the first hydraulic resistance , characterised in that the supply system comprises a pressure representative value measuring means configured to measure a pressure representative value (P m ) between the starter injector and the first hydraulic resistance , during a purge air flow between the starter injector and the first hydraulic resistance .
Brake arrangement for securing a hoisting device, in particular a crane system , with: a first brake device which acts on a first drive element , a second brake device which acts on a second drive element , a transmission device , in particular a gear mechanism, which acts between the first and the second drive element, a load sensor which detects a load signal and outputs it to a controller , and the controller is configured in such a way that, upon a load signal which exceeds an overload threshold, it initiates an emergency brake state and in the process actuates the first and the second brake device in such a way that they act on the first and second drive element at the same time within a first brake active time, characterized in that one of the first and second brake devices is configured in such a way that it acts on the first and/or the second drive element within a second brake active time in a normal brake state and the first brake active time is shorter than the second brake active time. a first brake device which acts on a first drive element , a second brake device which acts on a second drive element , a transmission device , in particular a gear mechanism, which acts between the first and the second drive element, a load sensor which detects a load signal and outputs it to a controller , and the controller is configured in such a way that, upon a load signal which exceeds an overload threshold, it initiates an emergency brake state and in the process actuates the first and the second brake device in such a way that they act on the first and second drive element at the same time within a first brake active time, characterized in that one of the first and second brake devices is configured in such a way that it acts on the first and/or the second drive element within a second brake active time in a normal brake state and the first brake active time is shorter than the second brake active time.
A photovoltaic module system kit for non-penetrating installation at a substantially flat surface, the kit comprising: first and second photovoltaic modules each including: a photovoltaic device including a photovoltaic laminate , and a frame assembled to and surrounding the photovoltaic laminate to define a unitary structure, the frame including two arms forming a planar support face for placement against a separate installation surface, wherein the kit is configured to provide a storage state of the PV modules stacked in a nested arrangement in which the frame of the first photovoltaic module is placed against the frame of the second photovoltaic module such that the respective photovoltaic laminates are parallel, and that the arms of the first photovoltaic module are transversely off-set from the frame of the second photovoltaic module, wherein the arms have an identical construction forming mirror images of one another each arm includes a shoulder and a foot , each arm is L-shaped, and in the storage state, the shoulder of the second photovoltaic module is slidably received within a trough of the arms of the first photovoltaic module. first and second photovoltaic modules each including: a photovoltaic device including a photovoltaic laminate , and a frame assembled to and surrounding the photovoltaic laminate to define a unitary structure, the frame including two arms forming a planar support face for placement against a separate installation surface, a photovoltaic device including a photovoltaic laminate , and a frame assembled to and surrounding the photovoltaic laminate to define a unitary structure, the frame including two arms forming a planar support face for placement against a separate installation surface, wherein the kit is configured to provide a storage state of the PV modules stacked in a nested arrangement in which the frame of the first photovoltaic module is placed against the frame of the second photovoltaic module such that the respective photovoltaic laminates are parallel, and that the arms of the first photovoltaic module are transversely off-set from the frame of the second photovoltaic module, wherein the arms have an identical construction forming mirror images of one another each arm includes a shoulder and a foot , each arm is L-shaped, and in the storage state, the shoulder of the second photovoltaic module is slidably received within a trough of the arms of the first photovoltaic module.
An impulse ultra-wideband, UWB, receiver comprising a plurality M of antennas (310 1 , ..., 310 M ), each antenna of the receiver receiving an antenna signal, said antenna signal being an impulse UWB signal formed by successive impulses modulated by means of an emitting code at a chip frequency, f PRP , an information symbol being coded over N c successive impulses, where N c is the length of the emitting code, the UWB receiver comprising - a multiplexing stage configured to multiplex antenna signals by means of orthogonal codes to provide a multiplexed signal, each orthogonal code being associated with a distinct antenna, the chip frequency of said orthogonal codes being equal to a sub-multiple, f PRP / P , of the chip frequency of the emitting code where P < N c is an integer divisor of N c ; - an RF front end receiving said multiplexed signal; - a demultiplexing stage configured to demultiplex the signal output from the RF front end by means of said orthogonal codes, said demultiplexing stage providing M demultiplexed signals corresponding to the different antennas. - a multiplexing stage configured to multiplex antenna signals by means of orthogonal codes to provide a multiplexed signal, each orthogonal code being associated with a distinct antenna, the chip frequency of said orthogonal codes being equal to a sub-multiple, f PRP / P , of the chip frequency of the emitting code where P < N c is an integer divisor of N c ; - an RF front end receiving said multiplexed signal; - a demultiplexing stage configured to demultiplex the signal output from the RF front end by means of said orthogonal codes, said demultiplexing stage providing M demultiplexed signals corresponding to the different antennas.