mhurhangee/ep-ind-claims huggingface dataset:
An access point configured to generate a data packet such that the data packet has a same packet length as a data packet from at least one other access point, the access point configured to reserve a channel for a time interval, and the access point configured to initiate transmission of the data packet over the channel at a same time as transmission of the data packet from the at least one other access point; wherein the access point is configured to set a look-ahead window for the channel if there is third party traffic on the channel, the look-ahead window containing a time when the channel is available for transmitting the data packet, and the look-ahead window being based on the third party traffic.
A method for deforming a component with a textile base structure, in particular a fibrous fabric for use in fibre-reinforced composite materials or a fiber prepreg, the method comprising the following steps: - Covering a pressing surface of a first mold at least partially with a liquid, - Arranging the component to be deformed between the first mold and a second mold, and - bringing the first mold and the second mold closer together in such a way that the component arranged between the first mold and the second mold is brought into a desired shape, the liquid partly from the Pressing surface of the first mold is displaced, so that a residue of liquid remains on the pressing surface of the first mold throughout the deformation process, characterized in that between the first mold and the second mold arranged component is floating on the liquid during the deformation process. - Covering a pressing surface of a first mold at least partially with a liquid, - Arranging the component to be deformed between the first mold and - bringing the first mold and the second mold closer together in such a way that the component arranged between the first mold and the second mold is brought into a desired shape, the liquid partly from the Pressing surface of the first mold is displaced, so that a residue of liquid remains on the pressing surface of the first mold throughout the deformation process, characterized in that between the first mold and the second mold arranged component is floating on the liquid during the deformation process.
A mechanical circulatory support system comprising: a controller configured to generate control signals comprising at least one performance parameter and to repeatingly transmit the control signals within consecutive time periods; and an implantable blood pump communicatively coupled to the controller, the blood pump comprising: an implantable housing; a rotary motor located in the implantable housing; and a control unit located in the implantable housing and communicatively coupled with the rotary motor and configured to: receive the control signals from the controller; track the consecutive time periods; and retrieve at least one back-up parameter if a control signal is not received from the controller within a predetermined time or number of the consecutive time periods to ensure operation of the implantable blood pump during a communication interruption or loss. a controller configured to generate control signals comprising at least one performance parameter and to repeatingly transmit the control signals within consecutive time periods; and an implantable blood pump communicatively coupled to the controller, the blood pump comprising: an implantable housing; a rotary motor located in the implantable housing; and a control unit located in the implantable housing and communicatively coupled with the rotary motor and configured to: receive the control signals from the controller; track the consecutive time periods; and retrieve at least one back-up parameter if a control signal is not received from the controller within a predetermined time or number of the consecutive time periods to ensure operation of the implantable blood pump during a communication interruption or loss. an implantable housing; a rotary motor located in the implantable housing; and a control unit located in the implantable housing and communicatively coupled with the rotary motor and configured to: receive the control signals from the controller; track the consecutive time periods; and retrieve at least one back-up parameter if a control signal is not received from the controller within a predetermined time or number of the consecutive time periods to ensure operation of the implantable blood pump during a communication interruption or loss. receive the control signals from the controller; track the consecutive time periods; and retrieve at least one back-up parameter if a control signal is not received from the controller within a predetermined time or number of the consecutive time periods to ensure operation of the implantable blood pump during a communication interruption or loss.
Capacitive sensor for the level of a liquid in a tank, including a longitudinal and substantially flat support, intended to be placed in the tank, the support including a proximal part, a central part and a distal part; and connection means, located in the proximal part, to electrically connect the support and the outside of the support; a first pair of electrodes, known as a measurement pair, including arms that are interdigital and placed on the support at least in its central part; and a second pair of electrodes, known as a reference pair, including arms that are interdigital and placed on the support in its distal part; characterized in that the support includes at least three layers; and the reference pair is linked to at least one connection line located in an inner layer of the support, which connection line is physically insulated from the liquid and is linked to the connection means, the reference electrodes being able, during operation, to be completely submerged in the liquid and being able to continuously obtain an independent measurement of the liquid level but function of its dielectric constant.
An information processing apparatus comprising: a supply unit configured to supply a clock to an external device; an instruction unit configured to instruct the external device to output data of a predetermined pattern; a receiving unit configured to receive data that is output from the external device in synchronization with the clock; a control unit configured to suspend supply of the clock by the supply unit during reception of the data of the predetermined pattern output from the external device in accordance with an instruction from the instruction unit, and a holding unit configured to hold data received by the receiving unit and to notify that the holding unit is not capable of holding data, wherein the control unit includes a first control unit configured to cause the supply unit to stop supply of the clock in response to the notification from the holding unit, a second control unit configured to cause the supply unit to stop supply of the clock in accordance with gating information indicating at which timing the supply of the clock is to be stopped, and a selection unit configured to cause one of the first control unit and the second control unit to selectively function and to cause the second control unit to function during reception of data by the receiving unit when a data latch timing of the receiving unit is adjusted. a supply unit configured to supply a clock to an external device; an instruction unit configured to instruct the external device to output data of a predetermined pattern; a receiving unit configured to receive data that is output from the external device in synchronization with the clock; a control unit configured to suspend supply of the clock by the supply unit during reception of the data of the predetermined pattern output from the external device in accordance with an instruction from the instruction unit, and a holding unit configured to hold data received by the receiving unit and to notify that the holding unit is not capable of holding data, wherein the control unit includes a first control unit configured to cause the supply unit to stop supply of the clock in response to the notification from the holding unit, a second control unit configured to cause the supply unit to stop supply of the clock in accordance with gating information indicating at which timing the supply of the clock is to be stopped, and a selection unit configured to cause one of the first control unit and the second control unit to selectively function and to cause the second control unit to function during reception of data by the receiving unit when a data latch timing of the receiving unit is adjusted.
A sliding article comprising: a load bearing substrate, having a first major surface, a second major surface, and an edge, the load bearing substrate having a thickness t 1, an aluminum containing layer overlying and in direct contact with the first major surface, the aluminum containing layer having a thickness t 2, wherein t 2 is at least 10 microns, a sliding layer overlying the first or the second major surface, wherein a ratio of t 2 /t 1 is at least 1/10 and not greater than 1/3. a load bearing substrate, having a first major surface, a second major surface, and an edge, the load bearing substrate having a thickness t 1, an aluminum containing layer overlying and in direct contact with the first major surface, the aluminum containing layer having a thickness t 2, wherein t 2 is at least 10 microns, a sliding layer overlying the first or the second major surface, wherein a ratio of t 2 /t 1 is at least 1/10 and not greater than 1/3.
Submarine having a pressure body in which at least one vertically oriented airlock with an upper-deck-side airlock opening is formed that at least partially traverses the pressure body, wherein the airlock comprises an airlock pressure body and an operation-dependent insert (24, 54, 68) which can be incorporated into the airlock pressure body, wherein the insert (24, 54, 68) can be chosen from a plurality of different inserts (24, 54, 68), characterized in that the inserts (24, 54, 68) comprise spring damping elements for shockproof mounting in the airlock pressure body, which spring damping elements are arranged between a frame of the inserts (24, 54, 68) and the airlock pressure body.
An avalanche protection device, comprising: - an avalanche protection backpack having at least one inflatable uplift air bag, and - a breathing system having a breathing housing, which - connects an inhalation one-way valve to an inhalation hose and at least one intake manifold and at least one ambient air intake zone, and - connects an exhalation one-way valve to an exhalation hose and a CO 2 exhalation zone, characterized in that a mouthpiece is provided at the breathing housing, wherein the mouthpiece can be automatically tightened at the mouth of the avalanche victim by actuating a trigger handle by means of a face air bag. - an avalanche protection backpack having at least one inflatable uplift air bag, and - a breathing system having a breathing housing, which - connects an inhalation one-way valve to an inhalation hose and at least one intake manifold and at least one ambient air intake zone, and - connects an exhalation one-way valve to an exhalation hose and a CO 2 exhalation zone, characterized in that a mouthpiece is provided at the breathing housing, wherein the mouthpiece can be automatically tightened at the mouth of the avalanche victim by actuating a trigger handle by means of a face air bag.
Electric motor having a motor shaft which by the motor rotor is axially movable and, on account thereof, activates in particular the actuator of a valve, wherein the rotor is movable axially in relation to the stator and, on account thereof, is partially moved out of the field of the stator, characterized in that a gearbox which enables an axial movement of the rotor in relation to the shaft, and/or an axial movement of the shaft in relation to the rotor, is disposed between the shaft and the rotor, or the rotor lamination, respectively.
An apparatus comprising: a two-level system memory, the two-level system memory comprising: a persistent memory; and a volatile memory, the volatile memory including: a cache, the cache including a plurality of cache lines, each cache line to store a copy of data read from the persistent memory; a dirty cache line tracker, the dirty cache line tracker to store a plurality of dirty cache line entries, each dirty cache line entry to store N dirty bits and each dirty cache line entry for M consecutive cache rows in the cache, each cache row having N/M cache lines, each dirty bit corresponding to one of N consecutive cache lines in the cache; and a cache manager to read the N dirty bits in a dirty cache line entry to identify a location of a dirty cache line in the cache. a persistent memory; and a volatile memory, the volatile memory including: a cache, the cache including a plurality of cache lines, each cache line to store a copy of data read from the persistent memory; a dirty cache line tracker, the dirty cache line tracker to store a plurality of dirty cache line entries, each dirty cache line entry to store N dirty bits and each dirty cache line entry for M consecutive cache rows in the cache, each cache row having N/M cache lines, each dirty bit corresponding to one of N consecutive cache lines in the cache; and a cache manager to read the N dirty bits in a dirty cache line entry to identify a location of a dirty cache line in the cache. a cache, the cache including a plurality of cache lines, each cache line to store a copy of data read from the persistent memory; a dirty cache line tracker, the dirty cache line tracker to store a plurality of dirty cache line entries, each dirty cache line entry to store N dirty bits and each dirty cache line entry for M consecutive cache rows in the cache, each cache row having N/M cache lines, each dirty bit corresponding to one of N consecutive cache lines in the cache; and a cache manager to read the N dirty bits in a dirty cache line entry to identify a location of a dirty cache line in the cache.
A population of capsules, the capsules comprising: an oil-based core comprising a benefit agent; and a shell surrounding the core, the shell comprising: a substantially inorganic first shell component comprising: a condensed layer comprising a condensation product of a precursor, and a nanoparticle layer comprising inorganic nanoparticles, wherein the condensed layer is disposed between the core and the nanoparticle layer, and an inorganic second shell component surrounding the first shell component, wherein the inorganic second shell component surrounds the nanoparticle layer, and wherein the precursor comprises at least one compound of Formula (M v O z Y n) w (Formula I) where M is one or more of silicon, titanium and aluminum, v is the valence number of M and is 3 or 4, z is from 0.5 to 1.6, preferably 0.5 to 1.5, each Y is independently selected from -OH, -OR 2, halo,, -NH 2, -NHR 2, - N(R 2) 2, and wherein R 2 is a C 1 to C 20 alkyl, C 1 to C 20 alkylene, C 6 to C 22 aryl, or a 5-12 membered heteroaryl comprising from 1 to 3 ring heteroatoms selected from O, N, and S, R 3 is a H, C 1 to C 20 alkyl, C 1 to C 20 alkylene, C 6 to C 22 aryl, or a 5-12 membered heteroaryl comprising from 1 to 3 ring heteroatoms selected from O, N, and S, n is from 0.7 to (v-1), and w is from 2 to 2000. an oil-based core comprising a benefit agent; and a shell surrounding the core, the shell comprising: a substantially inorganic first shell component comprising: a condensed layer comprising a condensation product of a precursor, and a nanoparticle layer comprising inorganic nanoparticles, wherein the condensed layer is disposed between the core and the nanoparticle layer, and an inorganic second shell component surrounding the first shell component, wherein the inorganic second shell component surrounds the nanoparticle layer, and wherein the precursor comprises at least one compound of Formula (M v O z Y n) w (Formula I) a substantially inorganic first shell component comprising: a condensed layer comprising a condensation product of a precursor, and a nanoparticle layer comprising inorganic nanoparticles, wherein the condensed layer is disposed between the core and the nanoparticle layer, and a condensed layer comprising a condensation product of a precursor, and a nanoparticle layer comprising inorganic nanoparticles, wherein the condensed layer is disposed between the core and the nanoparticle layer, and an inorganic second shell component surrounding the first shell component, where M is one or more of silicon, titanium and aluminum, v is the valence number of M and is 3 or 4, z is from 0.5 to 1.6, preferably 0.5 to 1.5, each Y is independently selected from -OH, -OR 2, halo,, -NH 2, -NHR 2, - N(R 2) 2, and wherein R 2 is a C 1 to C 20 alkyl, C 1 to C 20 alkylene, C 6 to C 22 aryl, or a 5-12 membered heteroaryl comprising from 1 to 3 ring heteroatoms selected from O, N, and S, R 3 is a H, C 1 to C 20 alkyl, C 1 to C 20 alkylene, C 6 to C 22 aryl, or a 5-12 membered heteroaryl comprising from 1 to 3 ring heteroatoms selected from O, N, and S, n is from 0.7 to (v-1), and w is from 2 to 2000.
Process for the hydrocracking of at least one hydrocarbon-containing feedstock, in which at least 50% by weight of the compounds have an initial boiling point above 340°C and a final boiling point below 540°C, using a catalyst comprising, in its oxide form, at least one metal selected from the metals of group VIB, the metals of group VIII and the metals of group VB of the periodic table, used alone or in a mixture, said metals being present in the form of at least one polyoxometallate of formula (H h X x M m O y) q- in which X is an element selected from phosphorus, silicon (Si), boron, nickel (Ni) and cobalt (Co), said element being used alone, M is one or more element(s) selected from vanadium, niobium (Nb), tantalum (Ta), molybdenum (Mo), tungsten, nickel (Ni) and cobalt (Co), O is oxygen, H is hydrogen, h is an integer comprised between 0 and 12, x is an integer comprised between 0 and 4, m is an integer equal to 5, 6, 7, 8, 9, 10, 11, 12 or 18, y is an integer comprised between 17 and 72 and q is an integer comprised between 1 and 20, said polyoxometallates being present within a mesostructured matrix based on oxide of at least one element Y selected from the group constituted by silicon, aluminium, titanium, zirconium, gallium, and cerium and a mixture of at least one of these elements, said matrix having a pore size comprised between 1.5 and 50 nm and having amorphous walls of thickness comprised between 1 and 30 nm, said catalyst being sulphurized before being used in said process.
A bobbin winder device of a sewing machine, comprising a motor; a spindle mounted on a support and configured to rotate about a spindle axis (A') and which is driveable by said motor, for releasable attachment of a thread bobbin to be filled with sewing thread; and a motor controller connected to the motor via electrical conductors and configured to control or regulate the rotational speed (ω) of the motor, characterized in that a brake body with a friction surface is movably held on the support, wherein the distance between the friction surface and the spindle axis (A') is variable; that the friction surface can be positioned next to the spindle in a reference position with a predeterminable reference distance (C 0) from the spindle axis (A') corresponding to a maximum winding radius of the sewing thread to be wound and is displaceable radially outwards from the reference position counter to a force of a restoring element, in particular a spring, with respect to the spindle axis (A'); and that the motor controller comprises a sensor means for detecting at least one measured variable, which is dependent on a load of the motor, in a driving circuit of the motor and a stored comparison value for the measured variable and/or a stored comparison value for the rate of change of the measured variable over time.
A sperm collection device, comprising an open/close unit composed of two open/close members openably and closably supported about a hinge and core pieces opened and closed by being supported by the open/close members, respectively for forming an insertion empty space between the closed core pieces and a holder for detachably supporting the open/close unit in a closed state characterized in that openings are formed on outer peripheral surfaces of the open/close members and parts of the core pieces are exposed in the openings.
A device (6,10) for detecting plant growth conditions within a plant growth substrate, the device comprising: a first linear array of probes for insertion into the substrate; a second linear array of probes for insertion into the substrate, wherein the second linear array is located at a fixed distance from the first linear array; a control unit arranged to obtain a first measurement of at least one property of the substrate at a first substrate level from the first linear array of probes and a second measurement of the at least one property of the substrate at a second substrate level from the second linear array of probes, characterised in that: the control unit is further arranged to combine the first and second measurements obtained at the first and second substrate levels to calculate at least one plant growth condition of the substrate as a function of the first and second measurements. a first linear array of probes for insertion into the substrate; a second linear array of probes for insertion into the substrate, wherein the second linear array is located at a fixed distance from the first linear array; a control unit arranged to obtain a first measurement of at least one property of the substrate at a first substrate level from the first linear array of probes and a second measurement of the at least one property of the substrate at a second substrate level from the second linear array of probes, characterised in that: the control unit is further arranged to combine the first and second measurements obtained at the first and second substrate levels to calculate at least one plant growth condition of the substrate as a function of the first and second measurements.
An aerosol particle measuring device for the qualitative and/or quantitative determination of fluorescent materials in real time by means of frequency domain fluorescence lifetime measurement, comprising a measuring device with a light source, detector and measuring chamber, an aerosol inlet, an aerosol outlet as well as an airflow generation and control device with electronics, characterized in that i) the detector is an electronic photon detector for light detection based on semiconductor technology, in particular a silicon photomultiplier (SiPM), and ii) the materials are aerosol particles of an aerosol and therefore are dispersed in a gas phase, whereupon the aerosol particles are determined in flight, which allows for permanent monitoring of particles in gases and in real time. i) the detector is an electronic photon detector for light detection based on semiconductor technology, in particular a silicon photomultiplier (SiPM), and ii) the materials are aerosol particles of an aerosol and therefore are dispersed in a gas phase, whereupon the aerosol particles are determined in flight, which allows for permanent monitoring of particles in gases and in real time.