mhurhangee/patent-ind-claim-en huggingface dataset:
Head support having a head box which is held on at least one support rod and can be mounted on the backrest of a vehicle seat by means of the support rod , having a head bearing part which can be adjusted, by means of a primary guide device, relative to the head box in a horizontal direction (x1, x2) between a back position, which is moved away from the head of an occupant, and a front position which is close to the head, the head box has a first guiding means which cooperates with second guiding means of the head bearing part , wherein the one guiding means comprises two toothed rails that are spaced apart from each other horizontally and extend in the movement direction of the head bearing part, said rails forming a first toothed rail pair and comprising two toothed rails that are spaced apart from each other horizontally, extending in the movement direction of the head bearing part, which form a second toothed rail pair thatextends parallel to the first toothed rail pair and is facing towards this, wherein the other guiding means comprises two toothed gears spaced apart from each other horizontally, which form a first toothed gear pair, wherein each toothed gear of the first toothed gear pair is engaged with a toothed rail of the first toothed rail pair, and a toothed gear of a second toothed gear pair is engaged with each toothed rail of the second toothed rail pair, which comprises two toothed gears spaced apart from each other horizontally, wherein the toothed gears of the first toothed gear pair and/or the toothed gears of the second toothed gear pair are movement connected to a shaft and wherein each toothed gear rolls between the rear position and the front position on the toothed rail when the head bearing part is moving, characterised in that in each case a toothed gear of the first toothed gear pair is engaged with a toothed gear of the second toothed gear pair.
An embedded device comprising a special-purpose computing system, means for storing firmware of the device and a bootloader for verifying the integrity and authenticity of the firmware, wherein the bootloader is configured to check a firmware hash against a reference hash, wherein the reference hash is stored in a write-once register , which is part of an always on power domain of the embedded device for speeding up the secure boot process after waking up the embedded device by skipping the calculation of the reference hash, wherein at a wakeup from sleep of the embedded device the persistent bootloader is configured to start executing, is configured to load verified reference hash from the write-once register and then the bootloader is configured to calculate a firmware hash of the firmware image and to compare it against the stored reference hash, wherein the bootloader is configured to execute the firmware if the hash values match otherwise an error state is indicated.
A system for providing negative-pressure therapy, the system comprising: a tissue interface configured to be positioned adjacent a tissue site; a sealing member configured to be positioned over the tissue interface to form a sealed space; a negative-pressure source configured to be fluidly coupled to the sealed space; a light sensor; a motion sensor; and a controller communicatively coupled to the negative-pressure source, the light sensor, and the motion sensor, the controller configured to: receive a signal from the light sensor and a signal from the motion sensor, actuate the source of negative pressure, and modify an operating parameter of the negative-pressure source in response to the signal from the light sensor and the signal from the motion sensor. a tissue interface configured to be positioned adjacent a tissue site; a sealing member configured to be positioned over the tissue interface to form a sealed space; a negative-pressure source configured to be fluidly coupled to the sealed space; a light sensor; a motion sensor; and a controller communicatively coupled to the negative-pressure source, the light sensor, and the motion sensor, the controller configured to: receive a signal from the light sensor and a signal from the motion sensor, actuate the source of negative pressure, and modify an operating parameter of the negative-pressure source in response to the signal from the light sensor and the signal from the motion sensor. receive a signal from the light sensor and a signal from the motion sensor, actuate the source of negative pressure, and modify an operating parameter of the negative-pressure source in response to the signal from the light sensor and the signal from the motion sensor.
Liquid phenolic resin, intended to be used in the formulation of a binder composition for mineral fibres, essentially consisting of phenol-formaldehyde condensates belonging to the family of resoles and of phenol-formaldehyde-amine condensates and having a water dilutability at 20°C of at least 1000%, characterized in that it has a free formaldehyde content of 0.3% or less and a free phenol content of 0.5% or less, the contents being expressed with respect to the total weight of liquid and in that the amine is a primary amine of formula: R-NH 2 in which R represents a saturated or unsaturated, linear, branched or cyclic hydrocarbon group containing 1 to 10 carbon atoms.
A method for producing a three-dimensionally deformable velour carpet for a floor panelling, a luggage compartment panelling or a loading floor panelling of a motor vehicle with a structurally needled, deformation-resistant surface with a grammage of the carpet in the range from 180 g/m 2 to 700 g/m 2 , characterized in that a structured velour carpet is produced from an initial nonwoven at a defined setting of the penetration depth, wherein a brush belt being used which has sections of different brushes and/or brush arrangements in segments or over part of the surface, and this velour carpet is provided with one or several underlayers and is deformed.
A pelagic trawl having mesh formed from helix rope, where a helix rope includes a strength member core constituting a first braided layer surrounded by a braided sheath ; wherein the braided sheath constitutes a second braided layer, wherein the braided sheath is formed of several first strands ; wherein the first strands are formed of fibers; the braided sheath being provided with one second strand being included within the weave of the braided sheath , wherein the second strand is significantly larger in diameter than the first strands so as to form a series of cambered sections capable of either or both causing lift and reducing drag when such rope is subjected to water flow about the rope in a position that corresponds to a position assumed by ropes used in forming pelagic trawl mesh in pelagic trawls, the helix rope characterized by the fact that a braid angle and an elasticity for the fibers forming the strands and for the fibers forming the strength member core's strands are configured so that the braided sheath and the strength member core experience total failure at the same elongation.
A method for transmitting data, comprising: determining (S210) a plurality of carriers or carrier groups for transmitting duplicated data according to a plurality of logical channels for carrying the duplicated data, wherein at least two logical channels in the plurality of logical channels correspond to different carriers or carrier groups for transmitting the duplicated data; transmitting (S220) the duplicated data carried in the plurality of logical channels respectively on the plurality of carriers or carrier groups; wherein in the plurality of logical channels, different logical channels correspond to different MAC entities; wherein at least two logical channels in the plurality of logical channels corresponding to different carriers or carrier groups for transmitting the duplicated data comprises: in the MAC entities corresponding to the plurality of logical channels, different MAC entities correspond to different carriers or carrier groups. determining (S210) a plurality of carriers or carrier groups for transmitting duplicated data according to a plurality of logical channels for carrying the duplicated data, wherein at least two logical channels in the plurality of logical channels correspond to different carriers or carrier groups for transmitting the duplicated data; transmitting (S220) the duplicated data carried in the plurality of logical channels respectively on the plurality of carriers or carrier groups; wherein in the plurality of logical channels, different logical channels correspond to different MAC entities; wherein at least two logical channels in the plurality of logical channels corresponding to different carriers or carrier groups for transmitting the duplicated data comprises: in the MAC entities corresponding to the plurality of logical channels, different MAC entities correspond to different carriers or carrier groups.
Clamping unit with a clamping module , in particular clamping unit of a zero point clamping system , wherein the clamping module comprises a clamping seat and at least one displaceable clamping means in such a way that a clamping element is pulled against or into the clamping seat and can be locked there by means of the clamping means , wherein a base part is provided and wherein the clamping module is arranged in or on an insert part or is formed as such a part, wherein locking means are provided which can be displaced from an unlocked position, in which the insert part can be moved, into a locked position, in which the insert part is locked against the base part, characterized in that the base part is formed ring-like and has an seat space and that the insert part is arranged in the seat space in the assembled state in such a way that between the insert part and the base part a radial gap is provided, whereby the insert part is arranged movably relative to the base part in at least one radial direction in such a way that during displacement of the clamping means into the clamping position a radial compensation of the insert part with respect to the base part into a final position is possible.
A method for receiving a radio resource control, RRC, message by a user equipment, UE, comprising: receiving an RRC connection reconfiguration message including secondary cell group, SCG, configuration parameters, wherein a master cell group, MCG, and a SCG are configured for dual connectivity, the RRC connection reconfiguration message is exchanged via the MCG, the MCG comprises at least a primary cell, PCell, and the SCG comprises at least a primary secondary cell, PSCell, wherein the RRC connection reconfiguration message has a structure to switch between a case that the SCG configuration parameters include a data radio bearer, DRB, configuration and a case that the SCG configuration parameters do not include a DRB configuration, wherein in the case that the SCG configuration parameters include a DRB configuration, a DRB corresponding to the DRB configuration is established to the SCG. receiving an RRC connection reconfiguration message including secondary cell group, SCG, configuration parameters, wherein a master cell group, MCG, and a SCG are configured for dual connectivity, the RRC connection reconfiguration message is exchanged via the MCG, the MCG comprises at least a primary cell, PCell, and the SCG comprises at least a primary secondary cell, PSCell, wherein the RRC connection reconfiguration message has a structure to switch between a case that the SCG configuration parameters include a data radio bearer, DRB, configuration and a case that the SCG configuration parameters do not include a DRB configuration, a case that the SCG configuration parameters include a data radio bearer, DRB, configuration and a case that the SCG configuration parameters do not include a DRB configuration, wherein in the case that the SCG configuration parameters include a DRB configuration, a DRB corresponding to the DRB configuration is established to the SCG.
Radome wall for communication in the frequency band of from 17 to 31 GHz for use on commercial aircraft, comprising a multilayer structure having an alternating arrangement of force-absorbing solid cover layers and shear-rigid core layers , wherein two cover layers form the outer sides of the radome wall and the radome wall is formed from five cover layers and four core layers , the material thicknesses of which are, in order, 0.63 mm, 2.50 mm, 0.84 mm, 2.00 mm, 1.06 mm, 2.00 mm, 0.84 mm, 2.50 mm, 0.63 mm, whereby the two core layers closest to the outer sides of the radome wall are thicker than the core layers closest to the midplane of the radome wall , wherein the five cover layers and the four core layers are made of dielectric materials, wherein the dielectric constant of the cover layers lies between 2.8 and 4.0 and the dielectric constant of the core layers lies between 1.0 and 1.2 and the tolerance for the thickness of the cover layers for a nominal thickness up to 1 mm is ±20% and for a nominal thickness above 1 mm is ±0.2 mm and the tolerance for the thickness of the core layers is ±0.2 mm.
A duct coupler for joining two segments of conduit , the duct coupler comprising: a coupler body , the coupler body being generally tubular and having an inner diameter generally corresponding to the outer diameter of a section of conduit measured at an annular locking rib positioned on the section of conduit , the coupler body including a cantilevered segment ; one or more protrusions formed on the interior surface of the coupler body and positioned on the cantilevered segment , the one or more protrusions positioned to engage with at least one annular locking rib to retain the section of conduit within the coupler body , the cantilevered segment being adapted to allow at least one protrusion to flex radially outward as the section of conduit is inserted into the coupler body , and adapted to force the at least one protrusion radially inward after the annular locking rib passes the protrusion (117, 117 ; a body gasket , the body gasket being generally tubular and positioned on the interior surface of the coupler body , the body gasket positioned to form a seal between the inner wall of the coupler body and the outer wall of the section of conduit ; the duct coupler being characterized in that the protrusions are wedge-shaped, and in that the wedge-shape of the protrusions facilitates entry of conduit section into the duct coupler and prevents removal of conduit section from the duct coupler . a coupler body , the coupler body being generally tubular and having an inner diameter generally corresponding to the outer diameter of a section of conduit measured at an annular locking rib positioned on the section of conduit , the coupler body including a cantilevered segment ; one or more protrusions formed on the interior surface of the coupler body and positioned on the cantilevered segment , the one or more protrusions positioned to engage with at least one annular locking rib to retain the section of conduit within the coupler body , the cantilevered segment being adapted to allow at least one protrusion to flex radially outward as the section of conduit is inserted into the coupler body , and adapted to force the at least one protrusion radially inward after the annular locking rib passes the protrusion (117, 117 ; a body gasket , the body gasket being generally tubular and positioned on the interior surface of the coupler body , the body gasket positioned to form a seal between the inner wall of the coupler body and the outer wall of the section of conduit ; the duct coupler being characterized in that the protrusions are wedge-shaped, and in that the wedge-shape of the protrusions facilitates entry of conduit section into the duct coupler and prevents removal of conduit section from the duct coupler .
Electronic device (ED) for controlling access to a vehicle using a portable identifier and providing power to a portable device inside that vehicle, said electronic device comprising means for controlling a plurality of external low frequency antennas (LA), a radio receiver (TRC) or a radio transceiver (TRC), a wireless charger (WIC) comprising at least one coil (COI), said electronic device (ED) being configured to operate in at least two mutually exclusive modes: - a first mode where the electronic device (ED) is configured to send a high-power signal to a portable identifier using the plurality of external low frequency antennas (LA) and to exchange data with said portable identifier terminal using the radio receiver (TRC) and the external low frequency antennas (LA) or the transceiver (TRC), - a second mode where the electronic device (ED) is configured to detect a portable device placed nearby the wireless charger (WIC), to exchange data with the portable device and to provide power to the portable device using a high-power signal through the wireless charger (WIC), which electronic device comprises a low-frequency antenna controller (ANC) and a H-bridge demultiplexer (BDP), said H-bridge demultiplexer (BDP) being connected to the low-frequency antenna controller (ANC) and configured to connect the low-frequency antenna controller (ANC) to the plurality of low-frequency antennas (LA) when the electronic device (ED) is in the first mode and to connect the low-frequency antenna controller (ANC) to one of the coil (COI) of the wireless charger (WIC) when the electronic device (ED) is in the second mode. - a first mode where the electronic device (ED) is configured to send a high-power signal to a portable identifier using the plurality of external low frequency antennas (LA) and to exchange data with said portable identifier terminal using the radio receiver (TRC) and the external low frequency antennas (LA) or the transceiver (TRC), - a second mode where the electronic device (ED) is configured to detect a portable device placed nearby the wireless charger (WIC), to exchange data with the portable device and to provide power to the portable device using a high-power signal through the wireless charger (WIC),
Unit for monitoring the presence of chips (C1-C6) between a seat of a tool holder and a support of a spindle of a machine tool; said monitoring unit comprising: - means for obtaining an imbalance (B(Ac, θc)) as a function of: - an amplitude (Ac) corresponding to a maximum of a first signal (Sa) representing the centrifugal forces applied to said seat and/or said support ; and - a phase (θc) obtained as a function of a phase-shift (D) between said first signal (Sa) and a second signal (Sp) representing a position of a drive shaft driving said spindle ; and - means for determining the presence of chips (C1-C6) as a function of an amplitude (Ar) and a reference phase (θr) ; characterized in that said determination means are configured to detect the presence of chips (C1-C6) when the norm of the difference between said imbalance (B(Ac, θc)) and a reference imbalance (B(Ar, θr)) is greater than a threshold value, said reference imbalance (B(Ar, θr)) being obtained as a function of said amplitude (Ar) and said reference phase (θr). - means for obtaining an imbalance (B(Ac, θc)) as a function of: - an amplitude (Ac) corresponding to a maximum of a first signal (Sa) representing the centrifugal forces applied to said seat and/or said support ; and - a phase (θc) obtained as a function of a phase-shift (D) between said first signal (Sa) and a second signal (Sp) representing a position of a drive shaft driving said spindle ; and - an amplitude (Ac) corresponding to a maximum of a first signal (Sa) representing the centrifugal forces applied to said seat and/or said support ; and - a phase (θc) obtained as a function of a phase-shift (D) between said first signal (Sa) and a second signal (Sp) representing a position of a drive shaft driving said spindle ; and - means for determining the presence of chips (C1-C6) as a function of an amplitude (Ar) and a reference phase (θr) ;
A multi-layered cover, particularly a glove for a human hand, comprising a main body and a rim, wherein - said rim essentially consists of an agglutinated outer and inner latex layer, - said main body comprises a. the outer latex layer b. the inner latex layer c. an intermediate layer comprising particles, wherein said particles are characterized by i. a mean diameter of ≤ 100 μm and ii. a surface comprising exposed OH groups when in a non-functionalized state and said particles are chemically functionalized with a compound comprising hydrophobic groups. - said rim essentially consists of an agglutinated outer and inner latex layer, - said main body comprises a. the outer latex layer b. the inner latex layer c. an intermediate layer comprising particles, wherein said particles are characterized by i. a mean diameter of ≤ 100 μm and ii. a surface comprising exposed OH groups when in a non-functionalized state and said particles are chemically functionalized with a compound comprising hydrophobic groups. a. the outer latex layer b. the inner latex layer c. an intermediate layer comprising particles, wherein said particles are characterized by i. a mean diameter of ≤ 100 μm and ii. a surface comprising exposed OH groups when in a non-functionalized state and said particles are chemically functionalized with a compound comprising hydrophobic groups. i. a mean diameter of ≤ 100 μm and ii. a surface comprising exposed OH groups when in a non-functionalized state and said particles are chemically functionalized with a compound comprising hydrophobic groups.
An insertion mechanism for drug delivery pumps having a vented fluid pathway comprising: one or more insertion biasing members ; a hub ; a needle coupled to the hub ; a retraction biasing member disposed to selectively retract the needle ; and a manifold having a septum through which the needle extends, a cannula , a manifold intake , a first opening, a membrane disposed across the first opening, and a second opening, the cannula extending through the second opening, the second opening being at least temporarily blocked by the needle as it resides within the cannula prior to operation of the insertion mechanism, wherein the annular space within the manifold between the septum , the cannula , the manifold intake , and the membrane defines a manifold header , and wherein the manifold is configured to vent a gaseous fluid through the membrane and fill with a liquid fluid for delivery to the user through the cannula . one or more insertion biasing members ; a hub ; a needle coupled to the hub ; a retraction biasing member disposed to selectively retract the needle ; and a manifold having a septum through which the needle extends, a cannula , a manifold intake , a first opening, a membrane disposed across the first opening, and a second opening, the cannula extending through the second opening, the second opening being at least temporarily blocked by the needle as it resides within the cannula prior to operation of the insertion mechanism, wherein the annular space within the manifold between the septum , the cannula , the manifold intake , and the membrane defines a manifold header , and wherein the manifold is configured to vent a gaseous fluid through the membrane and fill with a liquid fluid for delivery to the user through the cannula .