mhurhangee/patent-ind-claim-en huggingface dataset:
A urea group containing product comprising one or more species of formula (I) R 1 -X-(C=O)-[NH-R 2 -NH-(C=O)-NH-R 3 -NH-(C=O)] n -NH-R 2 -NH-(C=O)-X-R 1 (I), wherein R 1 is independently selected from organic groups having 4 to 200 carbon atoms, X is O or NR 4 , wherein R 4 is a hydrogen atom or an aliphatic or aromatic group having 1 to 30 carbon atoms, R 2 is independently selected from hydrocarbyl groups having 4 to 40 carbon atoms, R 3 is independently selected from hydrocarbyl groups having 2 to 40 carbon atoms, and wherein on average 76 to 100 mol% of all R 3 groups contained in the one or more species of formula (I) are hydrocarbyl groups having 2 or 3 carbon atoms, and n is an integer of 2 to 150. wherein R 1 is independently selected from organic groups having 4 to 200 carbon atoms, X is O or NR 4 , wherein R 4 is a hydrogen atom or an aliphatic or aromatic group having 1 to 30 carbon atoms, R 2 is independently selected from hydrocarbyl groups having 4 to 40 carbon atoms, R 3 is independently selected from hydrocarbyl groups having 2 to 40 carbon atoms, and wherein on average 76 to 100 mol% of all R 3 groups contained in the one or more species of formula (I) are hydrocarbyl groups having 2 or 3 carbon atoms, and n is an integer of 2 to 150.
Nozzle arrangement for a granulation device , having - a nozzle plate with nozzle holes , and - a pressure-regulating device comprising: - a basic body with a fluid-inlet side and also a fluid-outlet side , - a flow channel which is configured in the basic body for fluid-conducting connection of the fluid-inlet side to the fluid-outlet side , and - an annular channel portion which is connected for fluid conduction to the flow channel and configured in the region of the fluid-outlet side , characterised by a flow cross-section regulating element which is movable relative to the annular channel portion and/or to the flow channel for influencing a flow cross-section of the annular channel portion . - a nozzle plate with nozzle holes , and - a pressure-regulating device comprising: - a basic body with a fluid-inlet side and also a fluid-outlet side , - a flow channel which is configured in the basic body for fluid-conducting connection of the fluid-inlet side to the fluid-outlet side , and - an annular channel portion which is connected for fluid conduction to the flow channel and configured in the region of the fluid-outlet side , - a basic body with a fluid-inlet side and also a fluid-outlet side , - a flow channel which is configured in the basic body for fluid-conducting connection of the fluid-inlet side to the fluid-outlet side , and - an annular channel portion which is connected for fluid conduction to the flow channel and configured in the region of the fluid-outlet side ,
A system for delivering a first therapeutic agent within a bodily conduit, comprising: a first layer of material with which the first therapeutic agent is associated; a second layer of material disposed over the first layer of material at a location that at least covers the first therapeutic agent as associated with the first layer of material; and an expansion device for causing the first and second layers of material to be distended; wherein the second layer of material is provided with a porosity such that the first therapeutic agent is inhibited from being released through the second layer of material during a procedure in which the first and second layers of material are inserted within the bodily conduit and such that, when the first and second layers of material are caused to be distended by use of the expansion device at a desired location within the bodily conduit, the first therapeutic agent is capable of being released through the second layer of material for delivery at the desired location within the bodily conduit, wherein the first layer of material comprises a balloon and the expansion device comprises a device for inflating the balloon , wherein the second layer of material comprises a sleeve disposed around the balloon , wherein a second therapeutic agent is associated with the sleeve and is infiltrated within pores of the sleeve such that the second therapeutic agent saturates a porous structure of the second layer. a first layer of material with which the first therapeutic agent is associated; a second layer of material disposed over the first layer of material at a location that at least covers the first therapeutic agent as associated with the first layer of material; and an expansion device for causing the first and second layers of material to be distended; wherein the second layer of material is provided with a porosity such that the first therapeutic agent is inhibited from being released through the second layer of material during a procedure in which the first and second layers of material are inserted within the bodily conduit and such that, when the first and second layers of material are caused to be distended by use of the expansion device at a desired location within the bodily conduit, the first therapeutic agent is capable of being released through the second layer of material for delivery at the desired location within the bodily conduit, wherein the first layer of material comprises a balloon and the expansion device comprises a device for inflating the balloon , wherein the second layer of material comprises a sleeve disposed around the balloon , wherein a second therapeutic agent is associated with the sleeve and is infiltrated within pores of the sleeve such that the second therapeutic agent saturates a porous structure of the second layer.
A system for processing biological material, comprising: a first module and at least a second module , wherein each of said first and second modules has at least the following identical characteristics: a transfer interface being fixedly connectable to a transfer interface of an adjacent one of the modules ; a driving means for rotating a storage device for receiving plates or containers carrying lab-ware, cell cultures or liquids to a position, a plate slot of the storage device being aligned with the transfer interface; a frame framing an aperture of the transfer interface , a door being movable between a first position closing said aperture and a second position, in which the aperture is open; wherein the first and second modules are airtight connected with the transfer interface , characterised by a sealing element between the interfaces . a first module and at least a second module , wherein each of said first and second modules has at least the following identical characteristics: a transfer interface being fixedly connectable to a transfer interface of an adjacent one of the modules ; a driving means for rotating a storage device for receiving plates or containers carrying lab-ware, cell cultures or liquids to a position, a plate slot of the storage device being aligned with the transfer interface; a frame framing an aperture of the transfer interface , a door being movable between a first position closing said aperture and a second position, in which the aperture is open; wherein the first and second modules are airtight connected with the transfer interface , characterised by a sealing element between the interfaces . a transfer interface being fixedly connectable to a transfer interface of an adjacent one of the modules ; a driving means for rotating a storage device for receiving plates or containers carrying lab-ware, cell cultures or liquids to a position, a plate slot of the storage device being aligned with the transfer interface; a frame framing an aperture of the transfer interface , a door being movable between a first position closing said aperture and a second position, in which the aperture is open; wherein the first and second modules are airtight connected with the transfer interface , characterised by a sealing element between the interfaces .
A method for operating a first radio access system, comprising the step of: - configuring (S1), by a network node operating in said first radio access system, a first carrier having a first carrier frequency band and a second carrier having a second carrier frequency band for use for radio access in a first radio access system; wherein said second carrier is configured for frequency division duplex signalling; wherein a frequency band of said second carrier is defined to, at least partially, overlap in frequency with a frequency band of a third carrier having a third carrier frequency band of a second radio access system; wherein said third carrier has an overlapping coverage area with said second carrier; wherein at least a part (91; 91A-B) of said frequency band of said second carrier overlaps in frequency with guard bands (92A-B) of said third carrier ; and - transferring (S2), from the network node, the configuration information to other network nodes in said first radio access system. - configuring (S1), by a network node operating in said first radio access system, a first carrier having a first carrier frequency band and a second carrier having a second carrier frequency band for use for radio access in a first radio access system; wherein said second carrier is configured for frequency division duplex signalling; wherein a frequency band of said second carrier is defined to, at least partially, overlap in frequency with a frequency band of a third carrier having a third carrier frequency band of a second radio access system; wherein said third carrier has an overlapping coverage area with said second carrier; wherein at least a part (91; 91A-B) of said frequency band of said second carrier overlaps in frequency with guard bands (92A-B) of said third carrier ; and wherein said second carrier is configured for frequency division duplex signalling; wherein a frequency band of said second carrier is defined to, at least partially, overlap in frequency with a frequency band of a third carrier having a third carrier frequency band of a second radio access system; wherein said third carrier has an overlapping coverage area with said second carrier; wherein at least a part (91; 91A-B) of said frequency band of said second carrier overlaps in frequency with guard bands (92A-B) of said third carrier ; and - transferring (S2), from the network node, the configuration information to other network nodes in said first radio access system.
An apparatus comprising: a substrate ; a plurality of non-planar structures comprised of electrodes disposed above the substrate , wherein the plurality of non-planar structures comprise a plurality of first curved surfaces ; and a dielectric layer disposed above and between the plurality of non-planar structures, wherein the dielectric layer conforms to the plurality of first curved surfaces of the plurality of non-planar structures to form a plurality of second curved surfaces of the dielectric layer having a defined radius of curvature . a substrate ; a plurality of non-planar structures comprised of electrodes disposed above the substrate , wherein the plurality of non-planar structures comprise a plurality of first curved surfaces ; and a dielectric layer disposed above and between the plurality of non-planar structures, wherein the dielectric layer conforms to the plurality of first curved surfaces of the plurality of non-planar structures to form a plurality of second curved surfaces of the dielectric layer having a defined radius of curvature .
A fluid distribution assembly for distributing a fluid, the fluid distribution assembly comprising: an inlet housing including a inlet, a first conduit , and a bypass conduit ; a chip detector cavity in fluid communication with the first conduit such that the fluid can pass through the first conduit into the chip detector cavity ; and an outlet housing in fluid communication with the chip detector cavity and the bypass conduit such that the fluid can pass into the outlet housing through the chip detector cavity and/or the bypass conduit , characterized in that the inlet housing includes a vortex reducer located adjacent the inlet which can reduce vortices created at an opening between the first conduit and the bypass conduit . an inlet housing including a inlet, a first conduit , and a bypass conduit ; a chip detector cavity in fluid communication with the first conduit such that the fluid can pass through the first conduit into the chip detector cavity ; and an outlet housing in fluid communication with the chip detector cavity and the bypass conduit such that the fluid can pass into the outlet housing through the chip detector cavity and/or the bypass conduit , characterized in that the inlet housing includes a vortex reducer located adjacent the inlet which can reduce vortices created at an opening between the first conduit and the bypass conduit .
Pseudo-sinusoidal control method for a synchronous electric motor, this method comprising steps of: a) generating three control signals (S U , S V , S W ) each having a plurality of pulses, b) generating electric supply currents for supplying a synchronous electric motor , each supplying a winding of the motor and being generated by pulse-width modulation starting from the control signal that is associated with that winding, characterised in that , in step a), the three control signals are generated for successive control ranges (P 1 -P 6 ), each control range being associated with a predefined range of angular positions of a rotor of the motor, and in that the pulses of the control signals (S u , S v , S w ) generated in step a) have a duration (τ) which varies during the successive control ranges (P 1 -P 6 ) and are such that, for each of the control ranges (P 1 , P 6 ), the values of the respective modulation duty cycles (R u , R v , R w ) of chosen first and second control signals (S u , S v ; S v , S w ; S w , S u ) for that control range from among the three control signals generated vary inversely relative to one another, the third control signal (S w , S u , S v ) having a modulation duty cycle of constant value, the modulation duty cycle of a control signal being defined as being equal to the duration (τ, τ') of a pulse of the control signal divided by the period (T) of that control signal. a) generating three control signals (S U , S V , S W ) each having a plurality of pulses, b) generating electric supply currents for supplying a synchronous electric motor , each supplying a winding of the motor and being generated by pulse-width modulation starting from the control signal that is associated with that winding,
A method of performing fault management in electronic medical imaging apparatus , which method comprises the steps of - transferring machine data (D) of electronic medical imaging apparatus to a remote support centre during normal operation of the electronic medical imaging apparatus , wherein machine data (D) comprises information generated by electronic medical imaging apparatus in the course of normal operation and comprises any of: machine parameters for an imaging task, statements summarizing the steps of an imaging procedure, sensor output values, parameters set by a user, parameters set by the device, images generated during an imaging task; - applying artificial intelligence in the form of a neural network to analyse machine data (D) of electronic medical imaging apparatus in the remote support centre , wherein the neural network has learned to identify expected content in machine data (D) and to recognise any departure from such expected content; - providing a diagnostic and/or corrective workflow (WF) in response to an anomaly detected in machine data (D) of an electronic medical imaging apparatus ; - operating that electronic medical imaging apparatus from the remote support centre to execute the diagnostic and/or corrective workflow (WF), wherein machine data (D) of the diagnostic and/or corrective workflow (WF) is analysed in the remote support centre in real time. - transferring machine data (D) of electronic medical imaging apparatus to a remote support centre during normal operation of the electronic medical imaging apparatus , wherein machine data (D) comprises information generated by electronic medical imaging apparatus in the course of normal operation and comprises any of: machine parameters for an imaging task, statements summarizing the steps of an imaging procedure, sensor output values, parameters set by a user, parameters set by the device, images generated during an imaging task; - applying artificial intelligence in the form of a neural network to analyse machine data (D) of electronic medical imaging apparatus in the remote support centre , wherein the neural network has learned to identify expected content in machine data (D) and to recognise any departure from such expected content; - providing a diagnostic and/or corrective workflow (WF) in response to an anomaly detected in machine data (D) of an electronic medical imaging apparatus ; - operating that electronic medical imaging apparatus from the remote support centre to execute the diagnostic and/or corrective workflow (WF), wherein machine data (D) of the diagnostic and/or corrective workflow (WF) is analysed in the remote support centre in real time. - operating that electronic medical imaging apparatus from the remote support centre to execute the diagnostic and/or corrective workflow (WF), wherein machine data (D) of the diagnostic and/or corrective workflow (WF) is analysed in the remote support centre in real time.
A flexible tank wherein liquid can be stored and which can transport liquid from one location to another location by means of a vehicle and having a lower compartment and an upper compartment positioned one above the other, characterized in that the lower compartment and the upper compartment are formed by a tank body that is formed by at least one flexible wall joined in a manner forming a flexible pipe-like form wherein the tank body comprises a folding region having a first folding line (x1) and a second folding line (x2) configured such that a passage throttle is defined in between the first folding line (x1) and the second folding line (x2), and wherein the folding region (4 brought the tank body a C-like form wherein an upper arm defines the upper compartment and a lower arm defines the lower compartment , the lower compartment and the upper compartment being connected to each other through the folding region , the upper compartment comprises at least one joining region defined at the part thereof which seats onto the lower compartment for connecting the upper compartment and the lower compartment to each other, and at least one passage opening is provided at the joining region for forming a liquid passage between the lower compartment and the upper compartment .
Device for introducing a winding mat comprising wire wave windings into a rotor or stator body , comprising a receiving means for receiving and holding the rotor or stator body in a fastening position, and a feeding means which feeds the winding mat to the receiving means , the receiving means further comprising an introducing means which is configured to introduce windings of the winding mat into grooves in the rotor or stator body in a groove depth direction (R) in relation to the rotor or stator body , characterized in that the introducing means is further configured to separate the windings of the winding mat prior to the introduction into grooves and in that a relative rotation takes place between the rotor or stator body and the introducing means .
A dual sided shot peening system comprising: a pressurized air supply ; independently controlled first and second shot flow control valves ; and shot peening first and second nozzles ; the system being characterised by further comprising: independently controllable first and second shot peening air pressure regulators ; and first and second shot supplies , wherein the pressurized air supply is in pressurized air supply communication with the independently controllable first and second shot peening air pressure regulators , the first and second shot peening air pressure regulators being in pressurized air supply communication with a respective one of the first and second shot supplies , and the independently controlled first and second shot flow control valves being each operably disposed between a respective one of the first and second shot supplies and a respective one of the shot peening first and second nozzles . a pressurized air supply ; independently controlled first and second shot flow control valves ; and shot peening first and second nozzles ; the system being characterised by further comprising: independently controllable first and second shot peening air pressure regulators ; and first and second shot supplies , wherein the pressurized air supply is in pressurized air supply communication with the independently controllable first and second shot peening air pressure regulators , the first and second shot peening air pressure regulators being in pressurized air supply communication with a respective one of the first and second shot supplies , and the independently controlled first and second shot flow control valves being each operably disposed between a respective one of the first and second shot supplies and a respective one of the shot peening first and second nozzles . independently controllable first and second shot peening air pressure regulators ; and first and second shot supplies , wherein the pressurized air supply is in pressurized air supply communication with the independently controllable first and second shot peening air pressure regulators , the first and second shot peening air pressure regulators being in pressurized air supply communication with a respective one of the first and second shot supplies , and the independently controlled first and second shot flow control valves being each operably disposed between a respective one of the first and second shot supplies and a respective one of the shot peening first and second nozzles .