mhurhangee/patent-ind-claim-en huggingface dataset:
A covering system , including a. a cover with b. a first mounting geometry (2.1) at least partially extending around the cover ; and c. a carrier plate formed for mounting the cover ; d. an elastic mounting geometry (4.2) at least partially extending around the carrier plate ; wherein the first mounting geometry (2.1) and the elastic mounting geometry (4.2) are formed and arranged to be in positive engagement with one another, and wherein the first mounting geometry (2.1) is more rigid than the elastic mounting geometry (4.2), characterized in that the elastic mounting geometry (4.2) is formed from an elastomer, that the first mounting geometry (2.1) is formed from a material which is so strong that it is suitable for pressing in the elastomer without itself being pressed in or otherwise deformed, that the carrier plate has a seal (4.3) at least partially extending around the carrier plate , wherein the seal (4.3) is capable to seal the carrier plate against the wall of a hole in a wall in the radial direction. a. a cover with b. a first mounting geometry (2.1) at least partially extending around the cover ; and c. a carrier plate formed for mounting the cover ; d. an elastic mounting geometry (4.2) at least partially extending around the carrier plate ; wherein the first mounting geometry (2.1) and the elastic mounting geometry (4.2) are formed and arranged to be in positive engagement with one another, and wherein the first mounting geometry (2.1) is more rigid than the elastic mounting geometry (4.2), characterized in that the elastic mounting geometry (4.2) is formed from an elastomer, that the first mounting geometry (2.1) is formed from a material which is so strong that it is suitable for pressing in the elastomer without itself being pressed in or otherwise deformed, that the carrier plate has a seal (4.3) at least partially extending around the carrier plate , wherein the seal (4.3) is capable to seal the carrier plate against the wall of a hole in a wall in the radial direction. wherein the first mounting geometry (2.1) and the elastic mounting geometry (4.2) are formed and arranged to be in positive engagement with one another, and wherein the first mounting geometry (2.1) is more rigid than the elastic mounting geometry (4.2), characterized in that the elastic mounting geometry (4.2) is formed from an elastomer, that the first mounting geometry (2.1) is formed from a material which is so strong that it is suitable for pressing in the elastomer without itself being pressed in or otherwise deformed, that the carrier plate has a seal (4.3) at least partially extending around the carrier plate , wherein the seal (4.3) is capable to seal the carrier plate against the wall of a hole in a wall in the radial direction.
Vortex pump having an impeller which has vanes for delivering solids-containing media, characterized in that, at least for a portion of the vanes , proceeding from an origin vane section , at least one vane section branches off.
Agricultural implement having a tow bar device for towing the implement with a towing vehicle , wherein the implement comprises a ground-engagement means for support on the soil, and the tow bar device comprises a tow bar and a tow bar yoke, wherein the tow bar yoke is disposed between the tow bar and the trailing implement part, and the tow bar device comprises a tow bar arm , characterized in that the tow bar at one end by means of a first pivot bearing is mounted on the tow bar yoke of the tow bar device so as to be pivotable about a first vertical axis , and the tow bar arm at a tow bar arm end by means of a second pivot bearing is mounted on the tow bar yoke so as to be pivotable about a second vertical axis .
A Palladium complex having Formula (I) for use as an antiangiogenic agent in the treatment of a disease selected from a group comprising chronic inflammation, cardiovascular diseases and ocular diseases developed with angiogenesis.
A gastro-resistant pharmaceutical composition, which is a tablet or a powder to be filled into a capsule, comprising posaconazole, an enteric polymer and a water soluble neutral or anionic polysaccharide selected from hydroxypropyl methylcellulose (HPMC or hypromellose), hydroxyethyl methylcellulose (HEMC or hymetellose), hydroxypropylcellulose (HPC or hyprolose), hydroxyethylcellulose (HEC), hydroxymethylcellulose (HMC), hydroxypropyl ethylcellulose (HPEC), ethyl hydroxyethylcellulose (EHEC), sodium carboxymethyl hydroxyethylcellulose (NaCMHEC), starch and a starch derivative, wherein the tablet or the powder is prepared from granules containing posaconazole molecularly dispersed in the enteric polymer, wherein the neutral or anionic polysaccharide is contained as intragranular component, and wherein the weight ratio of posaconazole to the neutral or anionic polysaccharide is 3 : 1 to 1 : 2.
A support service system for an inkjet printing apparatus, comprising: a first network terminal that is configured to communicate information regarding a state of a first inkjet printing apparatus through communication from a first external communication device installed in the first inkjet printing apparatus ; and a second network terminal that is configured to perform determination of a service center responsible for a customer on the basis of the information regarding the state obtained through communication of the first network terminal and is configured to transmit a result of the determination to the first network terminal , wherein the first network terminal is configured to transmit a maintenance request for the first inkjet printing apparatus to the second network terminal , and the second network terminal is configured to transmit whether or not a service center is capable of responding to the maintenance request to the first network terminal , characterized in that , if a service center replies as not capable of responding, or there is no reply for a predetermined period of time, the second network terminal is configured to advance to a next service center from a list of service centers. a first network terminal that is configured to communicate information regarding a state of a first inkjet printing apparatus through communication from a first external communication device installed in the first inkjet printing apparatus ; and a second network terminal that is configured to perform determination of a service center responsible for a customer on the basis of the information regarding the state obtained through communication of the first network terminal and is configured to transmit a result of the determination to the first network terminal , wherein the first network terminal is configured to transmit a maintenance request for the first inkjet printing apparatus to the second network terminal , and the second network terminal is configured to transmit whether or not a service center is capable of responding to the maintenance request to the first network terminal , characterized in that , if a service center replies as not capable of responding, or there is no reply for a predetermined period of time, the second network terminal is configured to advance to a next service center from a list of service centers.
A method, performed on a processor, for detecting edge cracks of an element of a sheet metal product, comprising: calculating a first stress associated with a forming process employing a first die; calculating a second stress associated with a finishing process employing a second die; calculating a total stress by combining the calculated first stress and the calculated second stress; simulating the sheet metal product to produce a benchmark stress; and comparing the total stress and the benchmark stress to determine if the element predictively contains edge cracks. calculating a first stress associated with a forming process employing a first die; calculating a second stress associated with a finishing process employing a second die; calculating a total stress by combining the calculated first stress and the calculated second stress; simulating the sheet metal product to produce a benchmark stress; and comparing the total stress and the benchmark stress to determine if the element predictively contains edge cracks.
A storage unit for an Unmanned Aerial Vehicle (UAV) , the storage unit comprising a container for enclosing the UAV , a UAV landing platform (925-1), and a UAV receptacle (911-1) being positioned above the UAV landing platform (925-1), the UAV receptacle (911-1) comprising at least one inclined surface (913a-1, 913b-1, 913c-1, or 913d-1) for guiding a landing UAV to a predetermined UAV landing position on the UAV landing platform (925-1), characterised in that the UAV receptacle (911-1) comprises an extendable surface (913a-1, 913b-1, 913c-1, or 913d-1) for adapting a dimension of the UAV receptacle (911-1) according to a corresponding dimension of the landing UAV . a container for enclosing the UAV , a UAV landing platform (925-1), and a UAV receptacle (911-1) being positioned above the UAV landing platform (925-1), the UAV receptacle (911-1) comprising at least one inclined surface (913a-1, 913b-1, 913c-1, or 913d-1) for guiding a landing UAV to a predetermined UAV landing position on the UAV landing platform (925-1),
A method comprising the following steps, carried out in the following sequence: providing an energy storage device including at least a first energy storage element and a second energy storage element; initiating execution of an energy storage capacity module configured to test a capacity of the first energy storage element; removing the first energy storage element from service , while maintaining service of the energy storage device; measuring a capacity of the removed first energy storage element ; receiving the measured capacity at a lifing model ; executing the lifing model to generate an output ; and manipulating operation of the energy storage device based on the generated output. providing an energy storage device including at least a first energy storage element and a second energy storage element; initiating execution of an energy storage capacity module configured to test a capacity of the first energy storage element; removing the first energy storage element from service , while maintaining service of the energy storage device; measuring a capacity of the removed first energy storage element ; receiving the measured capacity at a lifing model ; executing the lifing model to generate an output ; and manipulating operation of the energy storage device based on the generated output.
A method for removing an installed main shaft and attached main bearing assembly of a wind turbine from a bedplate in the field, wherein a rotor has been removed from an upwind end of the main shaft, a downwind end of the main shaft has been disconnected from a gearbox , and the gearbox has been removed from the bedplate, the method comprising: supporting the upwind end of the main shaft with a rigging system, the rigging system suspended from a crane; with an assist system fixed to the downwind end of the bedplate , pushing the downwind end of the main shaft partway through the bedplate, wherein the main shaft at the downwind end is supported on a bearing unit fixed in the bedplate and the main shaft at the upwind end is supported by the rigging system; with the crane, supporting the upwind end of the main shaft to unload the bearing unit and slide the main shaft until the downwind end is free of the bearing unit; with the crane fully supporting the main shaft, horizontally sliding the main shaft out from the bedplate. supporting the upwind end of the main shaft with a rigging system, the rigging system suspended from a crane; with an assist system fixed to the downwind end of the bedplate , pushing the downwind end of the main shaft partway through the bedplate, wherein the main shaft at the downwind end is supported on a bearing unit fixed in the bedplate and the main shaft at the upwind end is supported by the rigging system; with the crane, supporting the upwind end of the main shaft to unload the bearing unit and slide the main shaft until the downwind end is free of the bearing unit; with the crane fully supporting the main shaft, horizontally sliding the main shaft out from the bedplate.
Sound processor unit of a cochlear implant system, wherein the sound processor unit comprises an electric circuit , which comprises a sound processor antenna with a sound processor antenna capacitance and a sound processor antenna inductance , wherein the sound processor antenna capacitance and the sound processor antenna inductance are connected in series and form a resonant circuit , wherein the electric circuit of the sound processor unit further comprises a switching element connected in series with the sound processor antenna capacitance and the sound processor antenna inductance , and the electric circuit of the sound processor unit further comprises an inductive element connected in parallel with the switching element , wherein when the switching element is in a closed state, the inductive element is in a short-circuited state and the sound processor antenna has a first resonant frequency, and when the switching element is in an open state, the inductive element is in a non-short-circuited state and the sound processor antenna has a second resonant frequency which differs from the first resonant frequency. wherein the sound processor unit comprises an electric circuit , which comprises a sound processor antenna with a sound processor antenna capacitance and a sound processor antenna inductance , wherein the sound processor antenna capacitance and the sound processor antenna inductance are connected in series and form a resonant circuit , wherein the electric circuit of the sound processor unit further comprises a switching element connected in series with the sound processor antenna capacitance and the sound processor antenna inductance , and the electric circuit of the sound processor unit further comprises an inductive element connected in parallel with the switching element , wherein when the switching element is in a closed state, the inductive element is in a short-circuited state and the sound processor antenna has a first resonant frequency, and when the switching element is in an open state, the inductive element is in a non-short-circuited state and the sound processor antenna has a second resonant frequency which differs from the first resonant frequency.
A 3D bio-printing platform for supplying nutrition, comprising a rotary rod and a nutrition supply system , wherein at least one end of the rotary rod is configured to be connected to a motor such that the motor is capable of driving rotation of the rotary rod and the rotary rod is arranged horizontally, wherein the rotary rod comprises: a hollow structure for passing a nutrition solution during a 3D bio-printing process, and at least one hole in a surface of the hollow structure for exuding a portion of the nutrition solution, wherein during a 3D bio-printing process, the nutrition supply system delivering a nutrition solution to the rotary rod , such that the nutrition solution passing through the hollow structure of the rotary rod and a portion of the nutrition solution exuding via at least one hole in a surface of the rotary rod . a hollow structure for passing a nutrition solution during a 3D bio-printing process, and at least one hole in a surface of the hollow structure for exuding a portion of the nutrition solution, wherein during a 3D bio-printing process, the nutrition supply system delivering a nutrition solution to the rotary rod , such that the nutrition solution passing through the hollow structure of the rotary rod and a portion of the nutrition solution exuding via at least one hole in a surface of the rotary rod .
A method, comprising: creating a plurality of machine-to-machine, MTM, service classes according to at least one device property, the at least one property comprising at least one of mobility, scheduling delay, data rate, persistence, or priority; assigning a network route for each MTM service class to associate each network route with a corresponding one of the plurality of MTM service classes according to different machine-type-communications, MTC, applications for different device types, wherein the network route comprises at least one of a route supporting a short message service, SMS, or a packet core route; receiving registration data associated with a device upon device registration for a computer network, wherein the received registration data comprises a device type and a device property; selecting one of the plurality of MTM service classes for the device based on the device type and the device property in the received registration data and determining an associated network route for the device based on the selected MTM service class; receiving a trigger message destined for the device, wherein the trigger message, once received by the device, causes the device to wake up and transmit data; and routing the trigger message destined for the device according to the network route assigned to the selected MTM service class. creating a plurality of machine-to-machine, MTM, service classes according to at least one device property, the at least one property comprising at least one of mobility, scheduling delay, data rate, persistence, or priority; assigning a network route for each MTM service class to associate each network route with a corresponding one of the plurality of MTM service classes according to different machine-type-communications, MTC, applications for different device types, wherein the network route comprises at least one of a route supporting a short message service, SMS, or a packet core route; receiving registration data associated with a device upon device registration for a computer network, wherein the received registration data comprises a device type and a device property; selecting one of the plurality of MTM service classes for the device based on the device type and the device property in the received registration data and determining an associated network route for the device based on the selected MTM service class; receiving a trigger message destined for the device, wherein the trigger message, once received by the device, causes the device to wake up and transmit data; and routing the trigger message destined for the device according to the network route assigned to the selected MTM service class.
A coated forming tool for producing a part of a seat system , comprising: a mold assembly configured to form at least a portion of the part of the seat system ; and a coating deposited over at least a portion of a surface of the mold assembly , wherein the coating comprises a nonstick material, characterized in that the coating has a thickness in a range of about 50.8μm (2 2 thousandths of an inch (2 mils)) to about 88.9μm (3.5 thousandths of an inch (3.5 mils)). a mold assembly configured to form at least a portion of the part of the seat system ; and a coating deposited over at least a portion of a surface of the mold assembly , wherein the coating comprises a nonstick material, characterized in that the coating has a thickness in a range of about 50.8μm (2 2 thousandths of an inch (2 mils)) to about 88.9μm (3.5 thousandths of an inch (3.5 mils)).
A method for determining a disposition of a sensor coil in a subject, the method comprising: driving an array of three or more quadruplet drive coil sets , each drive coil set including at least four discrete drive coils, the at least four discrete drive coils including a first drive coil , a second drive coil , a third drive coil , and a fourth drive coil , the first drive coil being orthogonal to the second drive coil , and the third drive coil and the fourth drive coil being orthogonal to each other but non-orthogonal to the first and second drive coils, each of the discrete drive coils being electromagnetic coils driven by drive signals, and generating respective electromagnetic wave fields; receiving one or more sensor coil response signals from a moveable sensor coil, the sensor coil generating response signals responsive to the respective electromagnetic wave fields; measuring one or more first sensor coil response signals; providing, in response to the measured one or more first sensor coil response signals, modified drive signals to one or more of the discrete drive coils, to maximize or optimize: the generated electromagnetic wave fields, or the one or more sensor coil response signals; measuring one or more second sensor coil response signals; and determining a sensor coil disposition of the moveable sensor coil in the subject relative to the quadruplet drive coil sets using the second sensor coil response signals, wherein the modified drive signals are different from the drive signals. driving an array of three or more quadruplet drive coil sets , each drive coil set including at least four discrete drive coils, the at least four discrete drive coils including a first drive coil , a second drive coil , a third drive coil , and a fourth drive coil , the first drive coil being orthogonal to the second drive coil , and the third drive coil and the fourth drive coil being orthogonal to each other but non-orthogonal to the first and second drive coils, each of the discrete drive coils being electromagnetic coils driven by drive signals, and generating respective electromagnetic wave fields; receiving one or more sensor coil response signals from a moveable sensor coil, the sensor coil generating response signals responsive to the respective electromagnetic wave fields; measuring one or more first sensor coil response signals; providing, in response to the measured one or more first sensor coil response signals, modified drive signals to one or more of the discrete drive coils, to maximize or optimize: the generated electromagnetic wave fields, or the one or more sensor coil response signals; the generated electromagnetic wave fields, or the one or more sensor coil response signals; measuring one or more second sensor coil response signals; and determining a sensor coil disposition of the moveable sensor coil in the subject relative to the quadruplet drive coil sets using the second sensor coil response signals, wherein the modified drive signals are different from the drive signals.
Electrical drive unit , in particular for adjusting movable parts in a motor vehicle, comprising a housing , having a metal pole housing which accommodates a stator and a rotor and having an electronics housing which axially adjoins the said pole housing and accommodates an electronics unit , wherein the electronics housing has a first axial housing part composed of plastic, the axially open side - facing away from the pole housing - of the said first axial housing part being closed by a second axial housing part composed of metal, wherein contact elements are integrated in the interior of a plastic wall of the first axial housing part , the said contact elements forming an electrically conductive connection between the pole housing and the second axial housing part in order to establish an earth connection, characterized in that a printed circuit board is arranged in the first housing part as the electronics unit , and at least one contact element conductively connects the printed circuit board to the pole housing , and the printed circuit board is also conductively connected to the second housing part , wherein the contact element conductively connects the pole housing directly to the printed circuit board - and is contact-connected to the printed circuit board by means of soldering or welding or bonding or by means of a press-fit connection, wherein the printed circuit board is fitted with a conductive contact spring which, during the axial mounting of the second housing part , generates an earth contact to the said second housing part.