mhurhangee/patent-ind-claim-en huggingface dataset:
A process for making a tube fitting in combination with a thick-walled tube comprising the steps of: placing an end portion of a thick-walled tube into engagement with a tube engaging surface of a frusto-conical portion of a die such that the inner diameter of said tube inter engages said tube engaging surface of said frusto-conical portion of said die , said die supported by a driving piston; sliding a sleeve over said tube , said sleeve includes an interior and an exterior, said exterior of said sleeve having a coating thereover, said sleeve includes a sharp annular biting portion engaging said thick-walled tube , said sleeve includes an interior annularly symmetric formed concavity , to facilitate bending and deforming of said sleeve , wherein said concavity of said sleeve inter engaging said thick-walled tube after deformation of said tube and said sleeve ; and wherein said sleeve includes an end portion , said end portion of said sleeve includes an extended lip portion and said extended lip portion forms a cavity in said sleeve ; and wherein said thick-walled tube includes after deformation, a bulbous portion engaging said extended lip portion of said sleeve (704, the process further comprising the steps of: securing said sleeve into forceful engagement with said die ; driving said die into said thick-walled tube and said sleeve with said driving piston ; flaring said end portion of said thick-walled tube ; and, deforming said sleeve into engagement with said thick-walled tube . placing an end portion of a thick-walled tube into engagement with a tube engaging surface of a frusto-conical portion of a die such that the inner diameter of said tube inter engages said tube engaging surface of said frusto-conical portion of said die , said die supported by a driving piston; sliding a sleeve over said tube , said sleeve includes an interior and an exterior, said exterior of said sleeve having a coating thereover, said sleeve includes a sharp annular biting portion engaging said thick-walled tube , said sleeve includes an interior annularly symmetric formed concavity , to facilitate bending and deforming of said sleeve , wherein said concavity of said sleeve inter engaging said thick-walled tube after deformation of said tube and said sleeve ; and wherein said sleeve includes an end portion , said end portion of said sleeve includes an extended lip portion and said extended lip portion forms a cavity in said sleeve ; and wherein said thick-walled tube includes after deformation, a bulbous portion engaging said extended lip portion of said sleeve (704, the process further comprising the steps of: securing said sleeve into forceful engagement with said die ; driving said die into said thick-walled tube and said sleeve with said driving piston ; flaring said end portion of said thick-walled tube ; and, deforming said sleeve into engagement with said thick-walled tube . securing said sleeve into forceful engagement with said die ; driving said die into said thick-walled tube and said sleeve with said driving piston ; flaring said end portion of said thick-walled tube ; and, deforming said sleeve into engagement with said thick-walled tube .
A connection method of a communication device (4-1 - 4-6) in a communication system that includes a plurality of communication devices (4-1 - 4-6) each having a wireless Local Area Network, LAN, access point function and a wireless LAN child device function and is constructed by connecting a lower-level communication device (4-1 - 4-6) to an access point of a higher-level communication device (4-1 - 4-6), wherein: when a new communication device (4-1 - 4-6) is added to the communication system, the new communication device (4-1 - 4-6) executes: a first step of connecting to an access point of an arbitrary one of the plurality of communication devices (4-1 - 4-6) of the communication system; and a second step of acquiring, from the connected communication device (4-1 - 4-6), system information of the communication system including a connection form of the plurality of communication devices (4-1 - 4-6), wherein the terms lower-level and higher-level refer to the distance of the respective communication device (4-1 - 4-6) from a connection to a wired LAN by cable, wherein a communication device (4-1 - 4-6) directly connected to the wired LAN by cable is called a root device, and a communication device (4-1 - 4-6) connected to the root device is called a node device, and a communication device (4-1 - 4-6) connected to a node device is called a leaf device, and wherein the term connection form refers to the communication devices (4-1 - 4-6) being root devices or node devices or leaf devices. a first step of connecting to an access point of an arbitrary one of the plurality of communication devices (4-1 - 4-6) of the communication system; and a second step of acquiring, from the connected communication device (4-1 - 4-6), system information of the communication system including a connection form of the plurality of communication devices (4-1 - 4-6), wherein the terms lower-level and higher-level refer to the distance of the respective communication device (4-1 - 4-6) from a connection to a wired LAN by cable, wherein a communication device (4-1 - 4-6) directly connected to the wired LAN by cable is called a root device, and a communication device (4-1 - 4-6) connected to the root device is called a node device, and a communication device (4-1 - 4-6) connected to a node device is called a leaf device, and wherein the term connection form refers to the communication devices (4-1 - 4-6) being root devices or node devices or leaf devices.
A signal processor comprising: an input terminal , configured to receive an input-signal ; a voicing-terminal , configured to receive a voicing-signal representative of a voiced speech component of the input-signal ; an output terminal ; a delay block , configured to receive the input-signal and provide a filter-input-signal as a delayed representation of the input-signal ; a filter block , configured to: receive the filter-input-signal ; and provide a noise-estimate-signal by filtering the filter-input-signal ; a combiner block , configured to: receive a combiner-input-signal representative of the input-signal ; receive the noise-estimate-signal ; and subtract the noise-estimate-signal from the combiner-input-signal to provide an output-signal to the output terminal ; and a filter-control-block , configured to: receive the voicing-signal ; receive signalling representative of the input-signal ; and set filter coefficients of the filter block in accordance with the voicing-signal and the signalling representative of the input-signal . an input terminal , configured to receive an input-signal ; a voicing-terminal , configured to receive a voicing-signal representative of a voiced speech component of the input-signal ; an output terminal ; a delay block , configured to receive the input-signal and provide a filter-input-signal as a delayed representation of the input-signal ; a filter block , configured to: receive the filter-input-signal ; and provide a noise-estimate-signal by filtering the filter-input-signal ; receive the filter-input-signal ; and provide a noise-estimate-signal by filtering the filter-input-signal ; a combiner block , configured to: receive a combiner-input-signal representative of the input-signal ; receive the noise-estimate-signal ; and subtract the noise-estimate-signal from the combiner-input-signal to provide an output-signal to the output terminal ; and receive a combiner-input-signal representative of the input-signal ; receive the noise-estimate-signal ; and subtract the noise-estimate-signal from the combiner-input-signal to provide an output-signal to the output terminal ; and a filter-control-block , configured to: receive the voicing-signal ; receive signalling representative of the input-signal ; and set filter coefficients of the filter block in accordance with the voicing-signal and the signalling representative of the input-signal . receive the voicing-signal ; receive signalling representative of the input-signal ; and set filter coefficients of the filter block in accordance with the voicing-signal and the signalling representative of the input-signal .
A delivery device (10; 700) for a collapsible prosthetic heart valve comprising: an inner shaft having a proximal end and a distal end; an outer shaft (22; 410) disposed around the inner shaft and longitudinally moveable relative to the inner shaft ; and a distal sheath (24; 511; 714) affixed to the outer shaft (22; 410) at a proximal end thereof and disposed about a portion of the inner shaft and forming a compartment (23; 714) with the inner shaft , the compartment (23; 714) being adapted to receive the prosthetic heart valve so that the distal sheath (24; 511; 714) covers the compartment (23; 714), the distal sheath (24; 511; 714) being slidable relative to the inner shaft ; characterised by the outer shaft (22; 410) having a pattern of cutouts (420; 420a, 420b, 420c) formed therein, the pattern including at least one ring around a circumference of the outer shaft (22; 410), the at least one ring having at least one of the cutouts. an inner shaft having a proximal end and a distal end; an outer shaft (22; 410) disposed around the inner shaft and longitudinally moveable relative to the inner shaft ; and a distal sheath (24; 511; 714) affixed to the outer shaft (22; 410) at a proximal end thereof and disposed about a portion of the inner shaft and forming a compartment (23; 714) with the inner shaft , the compartment (23; 714) being adapted to receive the prosthetic heart valve so that the distal sheath (24; 511; 714) covers the compartment (23; 714), the distal sheath (24; 511; 714) being slidable relative to the inner shaft ; characterised by the outer shaft (22; 410) having a pattern of cutouts (420; 420a, 420b, 420c) formed therein, the pattern including at least one ring around a circumference of the outer shaft (22; 410), the at least one ring having at least one of the cutouts.
Food forming drum comprising a multitude of rows of porous product cavities , each row comprising one or a multitude of porous product cavities , the drum comprising a first and a second front end and fluid channels in the longitudinal direction of the drum each fluid channel connecting one row of porous product cavities fluid-wise, wherein, the drum comprises an inner member which is formed as a drum and which comprises ribs , which extend radially from the inner member and whereas one or more inserts(s) are provided between two ribs , respectively, wherein the porous cavities are provided as porous inserts, characterised in that said inserts are connected to the drum irreversibly.
A power conversion device comprising: a frequency detection unit configured to generate a digital signal containing information about a rotation speed, a rotation direction, and a magnetic pole position of a rotating machine , based on an induced voltage of the rotating machine when the rotating machine is in a free run state; a speed reproducer configured to estimate the rotation speed, the rotation direction, and the magnetic pole position of the rotating machine based on the digital signal generated by the frequency detection unit ; and a step-out determination unit configured to determine a step-out state of the rotating machine based on the rotation speed, the rotation direction, and the magnetic pole position estimated by the speed reproducer , wherein the speed reproducer operates only when the rotating machine is in the free run state, and wherein the step-out determination unit is configured to determine the step-out state by comparing the rotation speed against a threshold set in advance. a frequency detection unit configured to generate a digital signal containing information about a rotation speed, a rotation direction, and a magnetic pole position of a rotating machine , based on an induced voltage of the rotating machine when the rotating machine is in a free run state; a speed reproducer configured to estimate the rotation speed, the rotation direction, and the magnetic pole position of the rotating machine based on the digital signal generated by the frequency detection unit ; and a step-out determination unit configured to determine a step-out state of the rotating machine based on the rotation speed, the rotation direction, and the magnetic pole position estimated by the speed reproducer , wherein the speed reproducer operates only when the rotating machine is in the free run state, and wherein the step-out determination unit is configured to determine the step-out state by comparing the rotation speed against a threshold set in advance.
Method for recognizing a topology in a low-voltage network that has local substations each having a plurality of output lines , wherein each output line is connected to at least one controllable electrical resource (9,10,23,27,28,32,47,48,80-87), and wherein each local substation has a control apparatus , characterized by the steps performed by way of a computer arrangement : - assigning resources (9,10,23,27,28,32,47,48,80-87) to the control apparatuses based on geographical proximity, wherein geographical proximity means a physical distance between a local substation and a resource, and - selecting an assigned resource , and - transmitting a test control command specific to the selected resource from the respective control apparatus to the resources respectively assigned thereto, wherein the test control command is designed to trigger a change in a power consumption or power output of the selected resource , and - measuring a change in at least one electrical variable on the output lines of the respective local substation by way of a respective measuring apparatus , and - assigning the selected electrical resource to that output line of that local substation on which a correlation between test control command and change is recognized. - assigning resources (9,10,23,27,28,32,47,48,80-87) to the control apparatuses based on geographical proximity, wherein geographical proximity means a physical distance between a local substation and a resource, and - selecting an assigned resource , and - transmitting a test control command specific to the selected resource from the respective control apparatus to the resources respectively assigned thereto, wherein the test control command is designed to trigger a change in a power consumption or power output of the selected resource , and - measuring a change in at least one electrical variable on the output lines of the respective local substation by way of a respective measuring apparatus , and - assigning the selected electrical resource to that output line of that local substation on which a correlation between test control command and change is recognized.
An oil scraper piston ring of an internal combustion engine, wherein an oil scraper piston ring groove of the piston is arranged without at least one oil drain bore, comprising a ring body having an upper ring flank , a lower ring flank , a ring inner side , a ring outer side , as well as two abutting surfaces , wherein an upper oil scraper rail and a lower oil scraper rail , which extend in the circumferential direction spaced apart from one another in the axial direction and which extend radially to the outside from the ring outer side , are arranged on the ring outer side , wherein oil passages running in the radial direction are arranged in a region between the upper scraper rail and the lower scraper rail , and wherein more than one groove running in the radial direction is formed on the lower ring flank , characterized in that the at least one groove has a depth or a width, which decreases from the inside to the outside in the radial direction, and wherein the oil scraper ring is provided on the ring inner side with a groove , which runs in the circumferential direction and into which an expander spring, preferably a tubular spring, is inserted. a ring body having an upper ring flank , a lower ring flank , a ring inner side , a ring outer side , as well as two abutting surfaces , an upper ring flank , a lower ring flank , a ring inner side , a ring outer side , as well as two abutting surfaces , wherein an upper oil scraper rail and a lower oil scraper rail , which extend in the circumferential direction spaced apart from one another in the axial direction and which extend radially to the outside from the ring outer side , are arranged on the ring outer side , wherein oil passages running in the radial direction are arranged in a region between the upper scraper rail and the lower scraper rail , and wherein more than one groove running in the radial direction is formed on the lower ring flank , characterized in that the at least one groove has a depth or a width, which decreases from the inside to the outside in the radial direction, and wherein the oil scraper ring is provided on the ring inner side with a groove , which runs in the circumferential direction and into which an expander spring, preferably a tubular spring, is inserted.
A filter media comprising: a fiber web including glass fibers and fibrillated fibers, the fiber web having a basis weight of between 10 and 1000 g/m 2 and a thickness of between 0.10 mm and 50.0 mm, wherein the average Canadian Standard Freeness level of fibrillation of the fibrillated fibers is between 100 and 850.
Safety device for a production station of workpieces , in particular vehicle body parts, and for a conveying means which can be moved into and out of the production station and is intended to transport the workpieces into and out of the production station , wherein the production station and the conveying means each have their own controller and their own safety circuit , wherein the safety device connects the safety circuits of the production station and of the conveying means situated in the production station , characterized in that , when connecting the safety circuits , the conveying means is incorporated as a tripping and disconnectable safety element .
A method of wireless communication performed by a wireless communication device, the method comprising: receiving an indication of a first transmit power configuration and a second transmit power configuration for a physical uplink shared channel, PUSCH, communication; transmitting , using a first transmit power that is based at least in part on the first transmit power configuration, a first portion of the PUSCH communication in a full-duplex portion of a time-frequency resource, wherein the first portion of the PUSCH communication occupies the same time-frequency resource as a PDSCH communication from a base station; and transmitting , using a second transmit power that is based at least in part on the second transmit power configuration, a second portion of the PUSCH communication in a non-full-duplex portion of the time-frequency resource, wherein the first transmit power is a greater transmit power relative to the second transmit power. receiving an indication of a first transmit power configuration and a second transmit power configuration for a physical uplink shared channel, PUSCH, communication; transmitting , using a first transmit power that is based at least in part on the first transmit power configuration, a first portion of the PUSCH communication in a full-duplex portion of a time-frequency resource, wherein the first portion of the PUSCH communication occupies the same time-frequency resource as a PDSCH communication from a base station; and transmitting , using a second transmit power that is based at least in part on the second transmit power configuration, a second portion of the PUSCH communication in a non-full-duplex portion of the time-frequency resource, wherein the first transmit power is a greater transmit power relative to the second transmit power.
A method for determining a dimension between the back and the cutting edge of a vibrating blade mounted on a cutting head and capable of being vibrated in a vertical direction for cutting a flexible material, comprising in succession: acquiring a digital image of the blade mounted on the cutting tool so that a line (L1) corresponding to a cutting edge of the blade and a line (L2) corresponding to a back of the blade are visible in the image; determining on the digital image along a straight line (L3) perpendicular to the line corresponding to the cutting edge of the blade the number of pixels comprised between the line corresponding to the cutting edge of the blade and the line corresponding to the back of the blade; and calculating a filtered dimension (d) between the back and the cutting edge of the blade based on the number of pixels comprised between the line corresponding to the cutting edge of the blade and the line corresponding to the back of the blade. acquiring a digital image of the blade mounted on the cutting tool so that a line (L1) corresponding to a cutting edge of the blade and a line (L2) corresponding to a back of the blade are visible in the image; determining on the digital image along a straight line (L3) perpendicular to the line corresponding to the cutting edge of the blade the number of pixels comprised between the line corresponding to the cutting edge of the blade and the line corresponding to the back of the blade; and calculating a filtered dimension (d) between the back and the cutting edge of the blade based on the number of pixels comprised between the line corresponding to the cutting edge of the blade and the line corresponding to the back of the blade.
A method comprising: (a) calcining first nickel(II)-containing particles in an atmosphere comprising oxidizing constituents generate second nickel(II)-containing particles; and (b) reducing the second nickel(II)-containing particles in a reducing atmosphere while rotating or turning the second nickel(II)-containing particles at 275 °C to 360 °C for a time sufficient to generate a free-flowing particulate nickel metal (Ni ) product from the second nickel(II)-containing particles, wherein water and steam are not added to the reducing atmosphere. (a) calcining first nickel(II)-containing particles in an atmosphere comprising oxidizing constituents generate second nickel(II)-containing particles; and (b) reducing the second nickel(II)-containing particles in a reducing atmosphere while rotating or turning the second nickel(II)-containing particles at 275 °C to 360 °C for a time sufficient to generate a free-flowing particulate nickel metal (Ni ) product from the second nickel(II)-containing particles, wherein water and steam are not added to the reducing atmosphere.
A method for operating a water electrolysis device for producing hydrogen and oxygen, in which in a water circuit , water which comes from a PEM electrolyser is fed to a first heat exchanger for cooling, subsequently to an ion exchanger , then to a second heat exchanger for heating and again to the PEM electrolyser , characterised in that the heat exchangers form part of a common heat transfer medium circuit at the secondary side, that the heat transfer medium circuit comprises a cooling device , through which the heat transfer medium flow is selectively led in a complete or partial manner or not at all, for the control and/or regulation of the temperature of the water which is fed to the ion exchanger and/or to the PEM electrolyser .