mhurhangee/patent-ind-claim-en huggingface dataset:
A new type of fabric in which collagen fiber bundles form a reticular structure, comprising a base yarn braided fabric , wherein the base yarn braided fabric is a knitted or a woven fabric, wherein it also comprises collagen fiber bundles , the collagen fiber bundles sheathed in the base yarn braided fabric protrude on the surface of the base yarn braided fabric , and the protruding collagen fiber bundles and their branches are interwoven to form a reticular structure , wherein a part of the collagen fiber bundles are sheathed on the base yarn so that at least one end of the partial branches protrudes from the base yarn braided fabric ; the novel fabric formed by the base yarn braided fabric and the reticular structure allows the collagen fiber bundles and their branches to be interwoven with the base yarn braided fabric many times through a finishing process after the base yarn braided fabric has been knitted or woven; characterized in that the novel fabric comprises no or very little fibrous interstitium, such that after the new type of fabric is washed with water, it is not easy to appear the phenomenon of fabric hardening due to the existence of fibrous interstitium.
Structure for developing at least one active layer of III-V material , comprising a substrate which is formed by a support having a main face, by a dielectric layer arranged on the main face of the support, and by a plurality of monocrystalline semiconductor islands arranged directly on the dielectric layer , the islands having an upper surface to be used as a seed for the growth of the active layer, the structure being characterized in that it comprises a bonding layer having a polycrystalline AIN surface arranged between the monocrystalline semiconductor islands , directly on the portion of the dielectric layer which is not covered by the islands , without masking the upper surface of the islands , such that the dielectric layer is no longer exposed to its environment.
A method for safeguarding at least one danger zone of a dangerous machine , wherein the machine is at least partially modelled as a danger zone and wherein objects in the vicinity of the danger zone are detected from measurement data of at least one 3D sensor and the objects are evaluated with respect to the danger zone by a connected control and evaluation unit , with a safety-related reaction of the machine being triggered in case of a dangerous situation, characterized in that at least two configuration sets of danger zones are stored in a memory of the 3D sensor , in that , during operation of the machine , the shortest distance between danger zone and objects is determined by the 3D sensor , and in that , in order to switch over at least one danger zone that currently is needed in the process flow, an activation request is sent to the 3D sensor , which then checks whether the danger zone to be newly safeguarded is free of objects and reports this back, whereupon the switchover by the control and evaluation unit only takes place if the danger zone to be newly safeguarded is free.
A system for cleaning a clot retrieval device comprising: a hemostasis valve assembly comprising: a distal end ; an entrance at the distal end sized to receive a delivery catheter ; a proximal end ; a hollow internal lumen with a longitudinal axis disposed between the proximal and distal ends ; and a rotating device lock at the proximal end ; and a cleaning instrument sized to receive a clot retrieval device and sharing a retrieval path of the clot retrieval device with the hemostasis valve assembly , characterized in that the cleaning instrument is disposed within a removable hub rotatable about the longitudinal axis of the hemostasis valve assembly wherein the cleaning instrument comprises a plurality of bristles extending radially from the sidewall of the cleaning instrument . a hemostasis valve assembly comprising: a distal end ; an entrance at the distal end sized to receive a delivery catheter ; a proximal end ; a hollow internal lumen with a longitudinal axis disposed between the proximal and distal ends ; and a rotating device lock at the proximal end ; and a distal end ; an entrance at the distal end sized to receive a delivery catheter ; a proximal end ; a hollow internal lumen with a longitudinal axis disposed between the proximal and distal ends ; and a rotating device lock at the proximal end ; and a cleaning instrument sized to receive a clot retrieval device and sharing a retrieval path of the clot retrieval device with the hemostasis valve assembly , characterized in that the cleaning instrument is disposed within a removable hub rotatable about the longitudinal axis of the hemostasis valve assembly wherein the cleaning instrument comprises a plurality of bristles extending radially from the sidewall of the cleaning instrument .
An LED converter , comprising: - a primary side stage and a secondary side stage ; - an isolated switched resonant stage supplying terminals for driving an LED load , wherein an LED current i LED is feedback-controlled based only on feedback-control signals from the primary side stage of the LED converter ; - a control unit controlling at least one switch (S 1 , S 2 ), preferably two alternatively clocked switches connected in series, of the switched resonant stage on the basis of the feedback-control signals supplied to the control unit , characterised in that said feedback-control signals comprise: a) a signal representing the voltage across the LED load V LED , wherein the LED voltage V LED is indirectly measured, indirectly meaning by an electric parameter tapped off the primary side stage ; b) a signal indicating a DC supply voltage of the primary side V BUS ; and c) at least one signal representing the current sensed at the primary side and representing the current flowing on the primary side of the isolation stage of isolated switched resonant stage. - a primary side stage and a secondary side stage ; - an isolated switched resonant stage supplying terminals for driving an LED load , wherein an LED current i LED is feedback-controlled based only on feedback-control signals from the primary side stage of the LED converter ; - a control unit controlling at least one switch (S 1 , S 2 ), preferably two alternatively clocked switches connected in series, of the switched resonant stage on the basis of the feedback-control signals supplied to the control unit , characterised in that said feedback-control signals comprise: a) a signal representing the voltage across the LED load V LED , wherein the LED voltage V LED is indirectly measured, indirectly meaning by an electric parameter tapped off the primary side stage ; b) a signal indicating a DC supply voltage of the primary side V BUS ; and c) at least one signal representing the current sensed at the primary side and representing the current flowing on the primary side of the isolation stage of isolated switched resonant stage. a) a signal representing the voltage across the LED load V LED , wherein the LED voltage V LED is indirectly measured, indirectly meaning by an electric parameter tapped off the primary side stage ; b) a signal indicating a DC supply voltage of the primary side V BUS ; and c) at least one signal representing the current sensed at the primary side and representing the current flowing on the primary side of the isolation stage of isolated switched resonant stage.
Method for detecting a decalibration of at least one surroundings sensor for capturing the surroundings of a vehicle , wherein a plurality of objects in the surroundings are detected by means of the surroundings sensor , characterized in that angular velocities (dα/dt) of the detected objects are ascertained while the vehicle is traveling, wherein clusters (P) of a number (N) of the objects are ascertained in relation to the angular velocities (dα/dt) by means of histogram evaluation, wherein if a cluster (P) is identified away from an angular velocity (dα/dt) of zero, it is concluded that the surroundings sensor has been decalibrated, which is caused by a deviation of the alignment of the surroundings sensor from a normal position with respect to a vehicle axis (A) of the vehicle .
A method, by a management controller , for dynamic reconfiguration of at least one peripheral bus switch of a system, comprising: detecting whether a server system is connected to each peripheral bus slot of the system; and selecting a peripheral bus switch topology for the at least one peripheral bus switch based on the detecting; characterized in further comprising setting each port of the at least one peripheral bus switch to either an upstream port configuration or a downstream port configuration, based on the peripheral bus switch topology. detecting whether a server system is connected to each peripheral bus slot of the system; and selecting a peripheral bus switch topology for the at least one peripheral bus switch based on the detecting; characterized in further comprising setting each port of the at least one peripheral bus switch to either an upstream port configuration or a downstream port configuration, based on the peripheral bus switch topology.
A liquid discharging device comprising: a support unit configured to support a medium, a discharging unit configured to discharge liquid to the medium supported by the support unit, a reading unit configured to read an image formed on the medium with the liquid, a holding unit configured to hold the discharging unit and the reading unit while moving in a scanning direction, and a control unit configured to control operation of the discharging unit, the reading unit, and the holding unit, wherein the control unit is configured to perform pattern forming operation that causes the discharging unit to discharge the liquid to form a test pattern image on the medium, reading operation that causes the reading unit to read at least a partial region of the test pattern image, and flushing operation that causes the discharging unit to perform flushing which discharges the liquid to a region in the test pattern image read by the reading unit, characterised in that the operation causing the reading unit to read a first region (RF, RFa) in the test pattern image by the reading operation is a first reading operation, and the control unit is further configured to perform a second reading operation, which is an operation causing the reading unit to read a second region (RS, RSa) in the test pattern image by the reading operation after the first reading operation is performed, and to cause the discharging unit to perform the flushing operation to discharge the liquid to the first region while the second reading operation is performed. a support unit configured to support a medium, a discharging unit configured to discharge liquid to the medium supported by the support unit, a reading unit configured to read an image formed on the medium with the liquid, a holding unit configured to hold the discharging unit and the reading unit while moving in a scanning direction, and a control unit configured to control operation of the discharging unit, the reading unit, and the holding unit, wherein the control unit is configured to perform pattern forming operation that causes the discharging unit to discharge the liquid to form a test pattern image on the medium, reading operation that causes the reading unit to read at least a partial region of the test pattern image, and flushing operation that causes the discharging unit to perform flushing which discharges the liquid to a region in the test pattern image read by the reading unit,
A drawer , in particular for a piece of furniture, having a bottom , a front panel , a rear wall , and two side frames connecting the front panel and the rear wall , wherein each side frame has an inner and an outer wall element , in particular made of steel plate, between which a cavity is formed, in which a lower retaining rail and an upper reinforcing rail are arranged, which are connected adjacent to the front panel to a front panel fastener , wherein the upper reinforcing rail is fixed via fastening means on the rear wall , characterized in that lower retaining rail is provided on the end with catch means , which are locked in a catch receptacle of the rear wall .
Rotary die cutter for punching out a piece of material from a printing substrate, comprising: - a die-cutting cylinder and an associated impression cylinder , the die-cutting cylinder being connected to a suction air source ; - a cutting die arranged on the die-cutting cylinder with at least one punching knife , which has a closed form and a suction opening within the closed form; - a cylinder packing arranged on the impression cylinder; - at least one raised or recessed first guide element for guiding suction air, which is arranged inside the closed form and/or at least one recessed or raised second guide element for guiding air, which is arranged in the cylinder packing characterized in that the raised first and/or second guide element is constructed as a web and/or that the recessed first and/or second guide element is designed as a groove . - a die-cutting cylinder and an associated impression cylinder , the die-cutting cylinder being connected to a suction air source ; - a cutting die arranged on the die-cutting cylinder with at least one punching knife , which has a closed form and a suction opening within the closed form; - a cylinder packing arranged on the impression cylinder; - at least one raised or recessed first guide element for guiding suction air, which is arranged inside the closed form and/or at least one recessed or raised second guide element for guiding air, which is arranged in the cylinder packing
A digital intersection system comprising digital, addressable, connected components, the components comprising: at least one safety-critical device corresponding to a device controlling allowable movements into or through the intersection; a local control unit configured to generate and output an intersection state plan based on inputs comprising information related to the intersection or local area surrounding the intersection, or impacting traffic patterns at an intersection; a safety control unit configured to accept the intersection state plan from the local control unit , validate the state plan, and provide the state plan to any interested device in the intersection , the any interested device comprising the at least one safety-critical device; and a digital network connecting the components to permit communications therebetween. at least one safety-critical device corresponding to a device controlling allowable movements into or through the intersection; a local control unit configured to generate and output an intersection state plan based on inputs comprising information related to the intersection or local area surrounding the intersection, or impacting traffic patterns at an intersection; a safety control unit configured to accept the intersection state plan from the local control unit , validate the state plan, and provide the state plan to any interested device in the intersection , the any interested device comprising the at least one safety-critical device; and a digital network connecting the components to permit communications therebetween.
An inert gas generation system from a flow of air, notably for an inerting system for at least one aircraft fuel tank, said generation comprising an air circuit comprising an air inlet , an inert gas outlet , and a first and a second air separation module arranged in series on said air circuit to deplete oxygen within the air and to generate a nitrogen-enriched inert gas, the air circuit comprising routing means for a portion of the air flow upstream of the first module directly to the second module , and routing means for the entire air flow downstream from the first module directly to the inert gas outlet , characterized in that it comprises a first valve and a second valve arranged on the air circuit between the first module and the second module , the first valve being connected to the inert gas outlet by a first bypass circuit , and the second valve being connected to the air circuit upstream of the first module by a second bypass circuit .
A device for moving and emptying bins for collecting waste comprising, on a load-bearing frame designed to be associated with a vehicle for collecting waste: a column element rotatable about its axis of symmetry using means for rotation and further supporting a framework ; said framework being able to be oriented, relative to said axis of symmetry , about a hinge , which in turn defines a direction of rotation substantially parallel to the ground (T); lifting and gripping means for a bin (C) of the waste to be emptied, connected to said framework ; and means for transferring said column element and said hinge relative to the position of said bin (C); wherein the lifting and gripping means comprise a tipping element connected to pickup arms for said bin (C), said tipping element being supported by at least one carriage , arranged to be translated along guide means formed on said framework . a column element rotatable about its axis of symmetry using means for rotation and further supporting a framework ; said framework being able to be oriented, relative to said axis of symmetry , about a hinge , which in turn defines a direction of rotation substantially parallel to the ground (T); lifting and gripping means for a bin (C) of the waste to be emptied, connected to said framework ; and means for transferring said column element and said hinge relative to the position of said bin (C); wherein the lifting and gripping means comprise a tipping element connected to pickup arms for said bin (C), said tipping element being supported by at least one carriage , arranged to be translated along guide means formed on said framework .
A method for the bonding of at least three substrates (4o, 4u, 4, 4', 4", 4"', 4o') to form a substrate stack (9, 9', 9"), wherein the substrate stack (9, 9', 9") comprises at least a lowest substrate , a middle substrate and an upper substrate (4o', 4"), with the following steps: - alignment of the middle substrate with the lowest substrate and bonding of the middle substrate to the lowest substrate , - then alignment of the upper substrate (4o', 4") and the bonding of the upper substrate (4o', 4") with the middle substrate , characterised in that the upper substrate (4o', 4") is aligned with the lowest substrate . - alignment of the middle substrate with the lowest substrate and bonding of the middle substrate to the lowest substrate , - then alignment of the upper substrate (4o', 4") and the bonding of the upper substrate (4o', 4") with the middle substrate , characterised in that the upper substrate (4o', 4") is aligned with the lowest substrate .
An apparatus comprising: a controller configured to be coupled to a system clock that generates a clock signal for a device that generates radiated electromagnetic interference, RE, , the controller also configured to: determine a frequency span associated with the system clock, the frequency span having a minimum frequency and a maximum frequency; determine a frequency step size based on an intermediate frequency, IF, filter bandwidth, f BW ,, the frequency step size f STEP is calculated as: f STEP = 1.5 × f BW to 2.5 × f BW ; determine a number of frequency steps based on the frequency span and the frequency step size; determine a total cycle time, t CYCLE , for the system clock to cycle through the sequence of frequency steps, the total cycle time is calculated as t CYCLE = MAX 1.5 × t DWELL to 2.5 × t DWELL ; 3 × t DECAY to 5 × t DECAY ; determine a duration of each frequency step based on the number of frequency steps and the total cycle time; determine the sequence of frequency steps , by interleaving the frequency steps across the frequency span,each frequency step associated with a distinct frequency within the frequency span; and control the system clock to change a frequency of the clock signal through the sequence of frequency steps in order to reduce the RE generated at or by the device. determine a frequency span associated with the system clock, the frequency span having a minimum frequency and a maximum frequency; determine a frequency step size based on an intermediate frequency, IF, filter bandwidth, f BW ,, the frequency step size f STEP is calculated as: f STEP = 1.5 × f BW to 2.5 × f BW ; determine a number of frequency steps based on the frequency span and the frequency step size; determine a total cycle time, t CYCLE , for the system clock to cycle through the sequence of frequency steps, the total cycle time is calculated as t CYCLE = MAX 1.5 × t DWELL to 2.5 × t DWELL ; 3 × t DECAY to 5 × t DECAY ; determine a duration of each frequency step based on the number of frequency steps and the total cycle time; determine the sequence of frequency steps , by interleaving the frequency steps across the frequency span,each frequency step associated with a distinct frequency within the frequency span; and control the system clock to change a frequency of the clock signal through the sequence of frequency steps in order to reduce the RE generated at or by the device.
Capacitor fuel probe for measuring a fuel level (H) along a probe axis (X) when a dielectric constant (K) value of the fuel is comprised between a minimum limit K min and a maximum limit K max , said minimum and maximum limits being prescribed for the capacitor fuel probe, the capacitor fuel probe comprising: - a continuous or segmented electrode tube along the probe axis (X), and - a series of N separated capacitor segments (1-9) which are superposed on one another along the probe axis (X) and disposed internally or externally to the electrode tube, N being an integer higher than 5, each capacitor segment extending from a bottom height value to a top height value along the probe axis, and the top height value of any one of the capacitor segments corresponding to the bottom height value of the next capacitor segment when moving from the lowest one of the capacitor segments to the highest one of said capacitor segments, wherein the capacitor fuel probe being further designed so that any three successive ones of the capacitor segments (1-9) are electrically isolated from each other, characterized in that each capacitor segment being assigned to one out of at least three sets (A-C) by repeating one and same ordered sequence of the sets while moving from the lowest capacitor segment to the highest capacitor segment according to a superposition order along the probe axis (X), all the capacitor segments within each set being connected electrically according to a parallel connection arrangement separately from the other sets, when all the capacitor segments (1-9) are numbered progressively with an integer index n from the lowest capacitor segment to the highest capacitor segment along the probe axis (X), and h n denoting the top height value of the n th capacitor segment, the following condition is met: h n − 1 < h n ⋅ K min − 1 / K max − 1 , for any n-value from 2 to N. - a continuous or segmented electrode tube along the probe axis (X), and - a series of N separated capacitor segments (1-9) which are superposed on one another along the probe axis (X) and disposed internally or externally to the electrode tube, N being an integer higher than 5, each capacitor segment extending from a bottom height value to a top height value along the probe axis, and the top height value of any one of the capacitor segments corresponding to the bottom height value of the next capacitor segment when moving from the lowest one of the capacitor segments to the highest one of said capacitor segments,