mhurhangee/patent-ind-claim-en huggingface dataset:
A modular system comprising a first base module and a first portable module configured to dock the first base module , characterized in that : the first base module comprises a dock and is configured to dock the first portable module , the first base module comprising a base module housing , a primary dialysate circuit comprising a primary dialysate pump , a primary dialysate line , and a first inter-module connector ; and the first portable module is configured to dock to the first base module in a docked configuration and configured to operate independently of the first base module in an undocked configuration, the first portable module comprising a first portable module housing , a blood pump mounted in or on the first portable module housing , a first extracorporeal blood circuit tubing set , and a second inter-module connector complementary to the first inter-module connector , the second inter-module connector being configured to connect to the first inter-module connector in the docked configuration and form a fluid communication between the first portable module and the first base module , wherein the blood pump is configured to releasably engage the extracorporeal blood circuit tubing set . the first base module comprises a dock and is configured to dock the first portable module , the first base module comprising a base module housing , a primary dialysate circuit comprising a primary dialysate pump , a primary dialysate line , and a first inter-module connector ; and the first portable module is configured to dock to the first base module in a docked configuration and configured to operate independently of the first base module in an undocked configuration, the first portable module comprising a first portable module housing , a blood pump mounted in or on the first portable module housing , a first extracorporeal blood circuit tubing set , and a second inter-module connector complementary to the first inter-module connector , the second inter-module connector being configured to connect to the first inter-module connector in the docked configuration and form a fluid communication between the first portable module and the first base module , wherein the blood pump is configured to releasably engage the extracorporeal blood circuit tubing set .
Cooking hob having a hob top , a mounting frame and a separate bottom part , wherein at least one hole is formed in the bottom part , and having at least one separating web oriented towards the hole for subdividing the space surrounded by the mounting frame underneath the hob top and thus also between the mounting frame and the bottom part into partial spaces , wherein the separating web is designed to be double-walled, and has two partial webs arranged spaced apart from one another and oriented towards the hole , characterised in that a strip-like shielding element is arranged at the edge of the hole and is formed so as to project upwards out of the plane of the hole, and the separating web and the shielding element are arranged to overlap when viewed in the direction of the hole axis (A), wherein adjacent to each partial web a shielding element is arranged so as to overlap with the adjacent partial web in the direction of the hole axis (A).
A method for taking over a driving task by an occupant of a transport means that is in a highly automated driving state, the method comprising the steps of: - identifying that the occupant has taken over the driving task and, in response to that, - automatically controlling a deformable grip element to influence the haptics of the rim of a steering wheel of the transport means . - identifying that the occupant has taken over the driving task and, in response to that, - automatically controlling a deformable grip element to influence the haptics of the rim of a steering wheel of the transport means .
A balun for feeding an antenna in an array of antennas, the balun including: a PCB comprising a first substrate layer and a second substrate layer , an upper layer of dielectric material formed on the upper face of the first substrate layer , a lower layer of dielectric material formed on the lower surface of the second substrate layer , an input line , partly sandwiched between the first and second substrate layers of the PCB, an output line , a slotline formed on an upper surface of the first substrate layer , wherein the upper layer of dielectric material entirely covers the slotline , and wherein the slotline is coupled to the input line and the output line , the balun further including: an input port for receiving an input electrical signal wherein the input line defines a first junction with the slotline towards the end of the slotline closest to the input port , a first output port and a second output port ; wherein the output line defines a second junction with the slotline towards the end of the slotline closest to the output ports ; in which: the input line couples the input electrical signal to the slotline at the first junction; the slotline couples the input electrical signal to the second junction, the second junction configured to act as a divider to produce a first and second output electrical signal; and the output line couples the first and second output electrical signals to, respectively, the first output port and the second output port . a PCB comprising a first substrate layer and a second substrate layer , an upper layer of dielectric material formed on the upper face of the first substrate layer , a lower layer of dielectric material formed on the lower surface of the second substrate layer , an input line , partly sandwiched between the first and second substrate layers of the PCB, an output line , a slotline formed on an upper surface of the first substrate layer , wherein the upper layer of dielectric material entirely covers the slotline , and wherein the slotline is coupled to the input line and the output line , an input port for receiving an input electrical signal wherein the input line defines a first junction with the slotline towards the end of the slotline closest to the input port , a first output port and a second output port ; wherein the output line defines a second junction with the slotline towards the end of the slotline closest to the output ports ; in which: the input line couples the input electrical signal to the slotline at the first junction; the slotline couples the input electrical signal to the second junction, the second junction configured to act as a divider to produce a first and
A method for the manipulation of particles (BEAD) in a conductive solution (S) by means of a field of force (F) wherein said field of force (F) constitutes points of stable equilibrium (CAGE) for said particles (BEAD), said field of force being generated by means of an array of electrodes (EL) set at a distance from one another or pitch (P), comprising the steps of: i. applying a first set of signals (VL) on a first sub-set (SE1) of electrodes and on a second sub-set (SE2) of electrodes (EL) for providing static cages (CAGE1) located respectively in a first spatial position (XY11) and a second spatial position (XY21); and ii. applying said first set of signals (VL) on said first sub-set (SE1) to maintain said static cages (CAGE1) on said first spatial location (XY11) and applying a second set of signals (VH) on said second sub-set (SE2) so that dynamic cages (CAGE2) generated by said second sub-set (SE2) are provided, such that said second spatial location (XY21) of each point of stable equilibrium is displaced in a third spatial location (XY22) at a distance from said second location (XY21) at least equal to said pitch (P) such that each particle trapped in each static cage (CAGE1) will remain in a neighbourhood of said first location (XY11) while each particle trapped in each dynamic cage (CAGE2) will be attracted towards said third location (XY22). i. applying a first set of signals (VL) on a first sub-set (SE1) of electrodes and on a second sub-set (SE2) of electrodes (EL) for providing static cages (CAGE1) located respectively in a first spatial position (XY11) and a second spatial position (XY21); and ii. applying said first set of signals (VL) on said first sub-set (SE1) to maintain said static cages (CAGE1) on said first spatial location (XY11) and applying a second set of signals (VH) on said second sub-set (SE2) so that dynamic cages (CAGE2) generated by said second sub-set (SE2) are provided, such that said second spatial location (XY21) of each point of stable equilibrium is displaced in a third spatial location (XY22) at a distance from said second location (XY21) at least equal to said pitch (P) such that each particle trapped in each static cage (CAGE1) will remain in a neighbourhood of said first location (XY11) while each particle trapped in each dynamic cage (CAGE2) will be attracted towards said third location (XY22).
An iron fulvate solution production method comprising: an apparatus preparation step of preparing a processing apparatus which comprises: a hermetic container internally having a closeable processing space; a steam jetting device operable to jet high-temperature and high-pressure steam into the hermetic container; a supply section for supplying a raw material into the hermetic container; and a discharge section for discharging, to the outside, a processed liquid produced through processing of the raw material by the steam; a raw material input step of inputting a raw material from the supply section into the processing space of the hermetic container of the processing apparatus, wherein the raw material comprises a woody plant material and an iron material, as main sub-raw materials; a processing step of subjecting the raw material to a subcritical water reaction processing, under stirring, while introducing steam having a temperature of 120 to 250°C and a pressure of 0.5 MPa (5 atm) to 3.5 MPa (35 atm) into the processing space in which the raw material is input, to obtain a mixed solution containing iron fulvate; and an iron fulvate solution taking-out step of separating the iron fulvate from the obtained mixed solution to take out an iron fulvate solution. an apparatus preparation step of preparing a processing apparatus which comprises: a hermetic container internally having a closeable processing space; a steam jetting device operable to jet high-temperature and high-pressure steam into the hermetic container; a supply section for supplying a raw material into the hermetic container; and a discharge section for discharging, to the outside, a processed liquid produced through processing of the raw material by the steam; a raw material input step of inputting a raw material from the supply section into the processing space of the hermetic container of the processing apparatus, wherein the raw material comprises a woody plant material and an iron material, as main sub-raw materials; a processing step of subjecting the raw material to a subcritical water reaction processing, under stirring, while introducing steam having a temperature of 120 to 250°C and a pressure of 0.5 MPa (5 atm) to 3.5 MPa (35 atm) into the processing space in which the raw material is input, to obtain a mixed solution containing iron fulvate; and an iron fulvate solution taking-out step of separating the iron fulvate from the obtained mixed solution to take out an iron fulvate solution.
A positioning system (POS) to position a structure (STR), the positioning system (POS) comprising an actuator (ACT) and a control unit (CU) to control the actuator (ACT) in response to a position setpoint received by the control unit (CU), the actuator (ACT) comprising: a magnet assembly (MA) comprises a magnet (MG) configured to provide a magnetic flux, and a coil assembly (CA), wherein the coil assembly (CA) and the magnet assembly (MA) are movable relative to each other, the coil assembly (CA) comprising a coil (CL), an actuation of the coil (CL) by a drive current providing for a force between the magnet assembly (MA) and the coil assembly (CA), wherein the magnet assembly (MA) comprises a further electric conductor (CON), the further electric conductor (CON) comprising a non-ferromagnetic electrically conductive material, wherein the further electric conductor (CON) is magnetically coupled to the coil (CL) of the coil assembly (CA) and forms a short circuit path for an inductive electrical current induced in the further electric conductor (CON) as a result of an actuator current in the coil (CL), characterized in that the actuator (ACT) forms a flat linear actuator, configured to exert a force in a direction along a plane parallel to a gap between the coil assembly (CA) and the magnet assembly (MA), the further electric conductor (CON) forming a conductive plate on the magnet assembly (MA) extending along the plane. a magnet assembly (MA) comprises a magnet (MG) configured to provide a magnetic flux, and a coil assembly (CA), wherein the coil assembly (CA) and the magnet assembly (MA) are movable relative to each other, the coil assembly (CA) comprising a coil (CL), an actuation of the coil (CL) by a drive current providing for a force between the magnet assembly (MA) and the coil assembly (CA), wherein the magnet assembly (MA) comprises a further electric conductor (CON), the further electric conductor (CON) comprising a non-ferromagnetic electrically conductive material, wherein the further electric conductor (CON) is magnetically coupled to the coil (CL) of the coil assembly (CA) and forms a short circuit path for an inductive electrical current induced in the further electric conductor (CON) as a result of an actuator current in the coil (CL), characterized in that the actuator (ACT) forms a flat linear actuator, configured to exert a force in a direction along a plane parallel to a gap between the coil assembly (CA) and the magnet assembly (MA), the further electric conductor (CON) forming a conductive plate on the magnet assembly (MA) extending along the plane.
A method of a user equipment, UE, in a wireless communication system, the method comprising: transmitting (S1201) a sidelink control signal on an aggregation slot, the aggregation slot including a plurality of slots; and transmitting (S1202) a first sidelink data signal and a second sidelink data signal on the aggregation slot based on the sidelink control signal, wherein priority set for the second sidelink data signal is higher than priority set for the first sidelink data signal, and wherein based on that a physical sidelink control channel, PSCCH, carrying the sidelink control information is not transmitted in each of the plurality of slots in the aggregation slot: whether the second sidelink data signal is scheduled is indicated based on demodulation reference signal, DMRS, information of a physical sidelink shared channel, PSSCH, transmitted in a remaining slot except for a second slot selected for transmitting the second sidelink data signal among the plurality of slots, the second slot being selected based on sensing information for selecting, among the plurality of slots, a first slot in which the first sidelink data signal is transmitted. transmitting (S1201) a sidelink control signal on an aggregation slot, the aggregation slot including a plurality of slots; and transmitting (S1202) a first sidelink data signal and a second sidelink data signal on the aggregation slot based on the sidelink control signal, wherein priority set for the second sidelink data signal is higher than priority set for the first sidelink data signal, and wherein based on that a physical sidelink control channel, PSCCH, carrying the sidelink control information is not transmitted in each of the plurality of slots in the aggregation slot: whether the second sidelink data signal is scheduled is indicated based on demodulation reference signal, DMRS, information of a physical sidelink shared channel, PSSCH, transmitted in a remaining slot except for a second slot selected for transmitting the second sidelink data signal among the plurality of slots, the second slot being selected based on sensing information for selecting, among the plurality of slots, a first slot in which the first sidelink data signal is transmitted.
A method for collision warning, the method comprising: determining a danger value (x(Δt)) which is indicative of a potential collision of a first vehicle and a second vehicle ; and generating by the first vehicle a warning signal, if the danger value (x(Δt)) crosses a predefined threshold (xref), wherein the danger value (x(Δt)) is determined by the first vehicle , the warning signal is perceivable to a driver of the second vehicle , the warning signal includes a visual warning signal that is projected onto the driving surface between the first vehicle and the second vehicle at a display distance (d CW (Δt)) behind the first vehicle , and the display distance (d CW (Δt)) is variable depending on the velocity of the first vehicle , the velocity of the second vehicle and the acceleration of the second vehicle and corresponds to a distance between the first vehicle and the second vehicle at which a collision may still be prevented by the driver of the second vehicle by performing a braking maneuver. determining a danger value (x(Δt)) which is indicative of a potential collision of a first vehicle and a second vehicle ; and generating by the first vehicle a warning signal, if the danger value (x(Δt)) crosses a predefined threshold (xref), wherein the danger value (x(Δt)) is determined by the first vehicle , the warning signal is perceivable to a driver of the second vehicle , the warning signal includes a visual warning signal that is projected onto the driving surface between the first vehicle and the second vehicle at a display distance (d CW (Δt)) behind the first vehicle , and the display distance (d CW (Δt)) is variable depending on the velocity of the first vehicle , the velocity of the second vehicle and the acceleration of the second vehicle and corresponds to a distance between the first vehicle and the second vehicle at which a collision may still be prevented by the driver of the second vehicle by performing a braking maneuver.
A filtration media pack comprising: a first sheet of filtration media, the first sheet of filtration media comprising a first plurality of parallel flutes defining first flute valleys extending between a first face of the media pack and a second face of the media pack ; and a second sheet of filtration media, the second sheet of filtration media comprising a second plurality of parallel flutes defining second flute peaks extending between the first face of the media pack and the second face of the media pack , wherein each first flute valley contacts one second flute peak at a discrete contact point , and wherein the first plurality of flutes are non-parallel to the second plurality of flutes; and an obstruction between the first sheet of filtration media and the second sheet of filtration media to define a fluid pathway extending through the first sheet of filtration media and the second sheet of filtration media in parallel; characterized in that each of the first plurality of flutes define a curve between the first face and the second face of the media pack ; and in that the second plurality of flutes are curved. a first sheet of filtration media, the first sheet of filtration media comprising a first plurality of parallel flutes defining first flute valleys extending between a first face of the media pack and a second face of the media pack ; and a second sheet of filtration media, the second sheet of filtration media comprising a second plurality of parallel flutes defining second flute peaks extending between the first face of the media pack and the second face of the media pack , wherein each first flute valley contacts one second flute peak at a discrete contact point , and wherein the first plurality of flutes are non-parallel to the second plurality of flutes; and an obstruction between the first sheet of filtration media and the second sheet of filtration media to define a fluid pathway extending through the first sheet of filtration media and the second sheet of filtration media in parallel;
An elevator car comprising: at least one hydrophobic interior surface ; and an air intake system to provide a laminar airflow between an at least one inlet and an at least one outlet ; characterized in that the at least one hydrophobic interior surface is a laser treated surface. at least one hydrophobic interior surface ; and an air intake system to provide a laminar airflow between an at least one inlet and an at least one outlet ; characterized in that the at least one hydrophobic interior surface is a laser treated surface.
A method of transmitting and receiving a signal by a user equipment, UE, dual-connected to a new radio access technology, NR, base station, BS and a long-term evolution, LTE, BS in a wireless communication system, the method comprising: receiving, from the NR BS, a control signal for transmitting a NR uplink signal in a scheduled time region to the NR BS; transmitting the NR uplink signal based on the control signal in the scheduled time region to the NR BS, wherein the NR uplink signal is overlapped with a LTE uplink signal in the scheduled time region due to a timing advance, TA, to the LTE BS and a TA to the NR BS, wherein a length of an overlapped duration in the scheduled time region is determined based on a difference between the TA to the LTE BS and the TA to the NR BS, wherein the length of the overlapped duration is longer than or equal to a threshold value, the NR uplink signal is dropped, and wherein the length of the overlapped duration is shorter than the threshold value, the NR uplink signal and the LTE uplink signal are transmitted simultaneously. receiving, from the NR BS, a control signal for transmitting a NR uplink signal in a scheduled time region to the NR BS; transmitting the NR uplink signal based on the control signal in the scheduled time region to the NR BS, wherein the NR uplink signal is overlapped with a LTE uplink signal in the scheduled time region due to a timing advance, TA, to the LTE BS and a TA to the NR BS, wherein a length of an overlapped duration in the scheduled time region is determined based on a difference between the TA to the LTE BS and the TA to the NR BS, wherein the length of the overlapped duration is longer than or equal to a threshold value, the NR uplink signal is dropped, and wherein the length of the overlapped duration is shorter than the threshold value, the NR uplink signal and the LTE uplink signal are transmitted simultaneously.