mhurhangee/ep-ind-claims huggingface dataset:
An ice cream mould table for moulding ice cream products, the ice cream mould table comprising a mould arrangement comprising an upper metal plate that has a plurality of mould pockets that each protrude from a bottom side of the upper metal plate, and a spray nozzle arrangement including a plurality of spray nozzles that is arranged to extend between the plurality of mould pockets in an alternating arrangement, wherein the spray nozzle arrangement is arranged to spray a heating fluid on the exterior of the mould pockets such that releasing of ice cream from the mould pockets is facilitated, characterized in that at least one spray nozzle of the plurality of spray nozzles comprises a first spray opening arranged to spray heating fluid towards a target mould pocket and in a first direction that is inclined by a first angle (α1) relative the vertical direction, and a second spray opening arranged to spray heating fluid towards the target mould pocket and in a second direction that is inclined by a second angle (α2) relative the vertical direction, wherein the first angle (α1) is different than the second angle (α2). a mould arrangement comprising an upper metal plate that has a plurality of mould pockets that each protrude from a bottom side of the upper metal plate, and a spray nozzle arrangement including a plurality of spray nozzles that is arranged to extend between the plurality of mould pockets in an alternating arrangement, wherein the spray nozzle arrangement is arranged to spray a heating fluid on the exterior of the mould pockets such that releasing of ice cream from the mould pockets is facilitated, characterized in that at least one spray nozzle of the plurality of spray nozzles comprises a first spray opening arranged to spray heating fluid towards a target mould pocket and in a first direction that is inclined by a first angle (α1) relative the vertical direction, and a second spray opening arranged to spray heating fluid towards the target mould pocket and in a second direction that is inclined by a second angle (α2) relative the vertical direction, wherein the first angle (α1) is different than the second angle (α2).
A method for radio frequency device pairing, comprising: after a paring instruction entered by a user is received, sending a discovery request message to at least one second radio frequency device; receiving a discovery response message returned by the at least one second radio frequency device; sending a first pairing request message to a target second radio frequency device in the at least one second radio frequency device; receiving a first paring response message returned by the target second radio frequency device; after a button instruction entered by the user according to interface information displayed by the target second radio frequency device is received, sending a second paring request message to the target second radio frequency device, wherein the second pairing request message contains button information corresponding to the button instruction, and the interface information is prompt information that gives a prompt about a button required to be entered by the user; and receiving a second pairing response message which is returned by the target second radio frequency device and contains a confirmation result; and if the confirmation result indicates that the button information and the interface information are successfully matched, exchanging keys with the target second radio frequency device, thereby completing pairing with the target second radio frequency device. after a paring instruction entered by a user is received, sending a discovery request message to at least one second radio frequency device; receiving a discovery response message returned by the at least one second radio frequency device; sending a first pairing request message to a target second radio frequency device in the at least one second radio frequency device; receiving a first paring response message returned by the target second radio frequency device; after a button instruction entered by the user according to interface information displayed by the target second radio frequency device is received, sending a second paring request message to the target second radio frequency device, wherein the second pairing request message contains button information corresponding to the button instruction, and the interface information is prompt information that gives a prompt about a button required to be entered by the user; and receiving a second pairing response message which is returned by the target second radio frequency device and contains a confirmation result; and if the confirmation result indicates that the button information and the interface information are successfully matched, exchanging keys with the target second radio frequency device, thereby completing pairing with the target second radio frequency device.
A closure device for bags or the like, comprising a series of parallel complementary profiles (110a-110e, 210a-210e) borne by respective support webs (100, 200), wherein each support web comprises at least two complementary profiles (110a-110e, 210a-210e) forming a multiple closure, whereof - complementary profiles (110a-110e, 210a-210e) comprising sequential crushings (120, 220) engaged in a direction perpendicular to the support webs such that the sequential crushings (120, 220) flare both complementary profiles (110, 210) in the direction of the width transversal to the elongation direction of the closure device, and - complementary profiles comprising sequential incisions without removal of material (120', 220') in a direction perpendicular to the support webs and/or devoid of sequential alterations (110d-110e, 210d-210e). - complementary profiles (110a-110e, 210a-210e) comprising sequential crushings (120, 220) engaged in a direction perpendicular to the support webs such that the sequential crushings (120, 220) flare both complementary profiles (110, 210) in the direction of the width transversal to the elongation direction of the closure device, and - complementary profiles comprising sequential incisions without removal of material (120', 220') in a direction perpendicular to the support webs and/or devoid of sequential alterations (110d-110e, 210d-210e).
An interior component for a motor vehicle, wherein the interior component comprises a covering layer of fluid jet-compacted natural non-woven fibre material or a covering layer of a fluid jet compacted mixture of different natural non-woven fibre materials, that at least on the side facing the interior of the motor vehicle in the installed state of the interior component a thin protective layer is arranged on the covering layer, characterized in that the protective layer design is transparent, in that the protective layer design is dirt and moisture-repellent, scratch-proof, climate-resistant and/or radiation resistant and in that the covering layer is at least partly perforated and/or embossed in design.
A method, performed by a radio network node, for managing a transmission from a user equipment to the radio network node, the method comprising: adapting (302, 1102) a transport format relating to the transmission based on information indicating at least one mode switching point of a radio transmitter, wherein the radio transmitter is comprised in the user equipment, at which said at least one mode switching point the corresponding relative phase discontinuity or phase discontinuity of the radio transmitter exceeds a threshold, wherein the adapting of the transport format comprises selecting a more robust transport format in view of a less robust transport format selected for the transmission when the information indicating at least one mode switching point is not accounted for.
A method of reducing signaling during link setup in a wireless communication system, the method comprising: receiving, from a device, at a terminal, a message including information for establishing a link with the device in the wireless communication system; identifying, at the terminal, a time slot and a back-off amount within the identified time slot based on a value included in the received message; abstaining, at the terminal, from sensing a medium based on the identified time slot and the identified back-off amount; and transmitting, from the terminal, an association request to establish the link with the device during the identified time slot after expiration of the back-off amount. receiving, from a device, at a terminal, a message including information for establishing a link with the device in the wireless communication system; identifying, at the terminal, a time slot and a back-off amount within the identified time slot based on a value included in the received message; abstaining, at the terminal, from sensing a medium based on the identified time slot and the identified back-off amount; and transmitting, from the terminal, an association request to establish the link with the device during the identified time slot after expiration of the back-off amount.
Packaging sheet product made of a cold-rolled steel sheet with a thickness of less than 0.6 mm, which has the following composition in terms of weight: - C: 0,001 - 0,06 %, - Si: < 0.03 %, preferably 0.002 to 0.03 %, - Mn: 0.17 - 0.5 %, - P: < 0.03 %, preferably 0.005 to 0.03 %, - S: 0,001 - 0,03 %, - Al: 0.001 - 0.1 %, - N: 0.002 - 0.12 %, preferably 0.004 to 0.07 %, - optional Cr: < 0.1 %, preferably 0.01 - 0.1 %, - optional Ni: < 0.1 %, preferably 0.01 - 0.05 %, - optional Cu: < 0.1 %, preferably 0.002 - 0.05 %, - optional Ti: < 0.01 %, - optional B: < 0.005 %, - optional Nb: < 0.01 %, - optional Mo: < 0.02 %, - optional Sn: < 0,03 %, - Residual iron and unavoidable impurities, wherein the packaging sheet product has a lower yield strength (Sb eL) of more than 300 MPa and an associated elongation at break (Ab) of more than 10 % under a biaxial deformation in a bulge test according to DIN EN ISO 16808 and in the plastic range between the Lüder strain (Ab e) and an upper plastic limit elongation of ε max = 0,5·Ab·(Sb eL /Sb m) a biaxial stress/strain diagram σ B (ε), which can be represented by a function σ B = b·ε n, wherein - σ B is the true biaxial stress in MPa, - ε is the amount of true elongation in the thickness direction in %, - Sb eL is the lower yield point, - Sb m is the absolute strength, - Ab e is the Lüder strain, - b is a proportionality factor and - n is a solidification exponent, and a strengthening of the packaging sheet product in the thickness direction is characterised by a strengthening exponent of n ≥ 0.353 − 5.1 ⋅ Sb / 10 eL 4 MPa. - C: 0,001 - 0,06 %, - Si: < 0.03 %, preferably 0.002 to 0.03 %, - Mn: 0.17 - 0.5 %, - P: < 0.03 %, preferably 0.005 to 0.03 %, - S: 0,001 - 0,03 %, - Al: 0.001 - 0.1 %, - N: 0.002 - 0.12 %, preferably 0.004 to 0.07 %, - optional Cr: < 0.1 %, preferably 0.01 - 0.1 %, - optional Ni: < 0.1 %, preferably 0.01 - 0.05 %, - optional Cu: < 0.1 %, preferably 0.002 - 0.05 %, - optional Ti: < 0.01 %, - optional B: < 0.005 %, - optional Nb: < 0.01 %, - optional Mo: < 0.02 %, - optional Sn: < 0,03 %, - Residual iron and unavoidable impurities, - σ B is the true biaxial stress in MPa, - ε is the amount of true elongation in the thickness direction in %, - Sb eL is the lower yield point, - Sb m is the absolute strength, - Ab e is the Lüder strain, - b is a proportionality factor and - n is a solidification exponent,
A method of monitoring a load applied to a hydraulic cylinder, wherein the hydraulic cylinder is used as an actuator, the method comprising: supplying a hydraulic fluid at a constant pressure to a chamber of the hydraulic cylinder through a check valve; trapping the hydraulic fluid in the chamber behind the check valve; continuously leaking the hydraulic fluid trapped behind the check valve at a leakage rate sufficient to compensate for expansion of the hydraulic fluid caused by variations in temperature of the hydraulic fluid, wherein the hydraulic fluid trapped behind the check valve is continuously leaked from the chamber; and measuring the pressure of the hydraulic fluid in the chamber trapped behind the check valve. supplying a hydraulic fluid at a constant pressure to a chamber of the hydraulic cylinder through a check valve; trapping the hydraulic fluid in the chamber behind the check valve; continuously leaking the hydraulic fluid trapped behind the check valve at a leakage rate sufficient to compensate for expansion of the hydraulic fluid caused by variations in temperature of the hydraulic fluid, wherein the hydraulic fluid trapped behind the check valve is continuously leaked from the chamber; and measuring the pressure of the hydraulic fluid in the chamber trapped behind the check valve.
A wound leakage containment device comprising: vacuum tubing having a wall, said wall having an external surface, an internal surface, a first end in fluid communication with a source of negative pressure, a second end in fluid communication with a source of wound leakage, and a portion between the first end and the second end having one or more perforations through the wall thereof; a chamber for enclosing and maintaining a vacuum around the external surface of the perforated portion of said tubing; an absorbent material disposed within said chamber adjacent to the external surface of the perforated portion of said tubing; and one or more vapor-permeable plugs (260A, 260B) disposed in the internal surface of said vacuum tubing between the first end and the perforated portion thereof.
A crossbar memory structure comprising a crosspoint array comprising a plurality of column lines (SC, UC) and a plurality of row lines (SR, UR) with resistive switching devices (202, 204, 206, 208) formed at intersections of column lines and row lines and a read circuit for sensing a resistive state of a resistive switching device in array, comprising: an equipotential preamplifier (206, 410) for connecting to a selected column line of the resistive switching device in the array to deliver a read current (I_Read) while maintaining the selected column line at a reference voltage (V_Ref) near a blasing voltage (V_S) applied unselected row lines of the array; a reference voltage generation component (270, 420) for generating the reference voltage for the equipotential preamplifier characterised by the reference voltage generation component being connected to sample the biasing voltage via the selected column line, and adding a small on the order of tens of millivolts or less increment to a sampled biasing voltage to form the reference voltage; wherein the reference voltage generation component includes a sample-and-hold transistor (Qp_S/H) connected to a reference input of the equipotential amplifier to connect the reference input to the selected column line during sampling of the biasing voltage; and wherein the sample-and-hold transistor adds the small increment to the sampled biasing voltage via a clock feed through charge. an equipotential preamplifier (206, 410) for connecting to a selected column line of the resistive switching device in the array to deliver a read current (I_Read) while maintaining the selected column line at a reference voltage (V_Ref) near a blasing voltage (V_S) applied unselected row lines of the array; a reference voltage generation component (270, 420) for generating the reference voltage for the equipotential preamplifier characterised by the reference voltage generation component being connected to sample the biasing voltage via the selected column line, and adding a small on the order of tens of millivolts or less increment to a sampled biasing voltage to form the reference voltage; wherein the reference voltage generation component includes a sample-and-hold transistor (Qp_S/H) connected to a reference input of the equipotential amplifier to connect the reference input to the selected column line during sampling of the biasing voltage; and wherein the sample-and-hold transistor adds the small increment to the sampled biasing voltage via a clock feed through charge.
System (1; 20) for displaying and identifying markers of a geometric image in space, having at least one portable device with a recording unit, which is designed to record the image, and an electronic data processing unit, which is designed to identify the markers and to process the recordings on the basis of the identified markers, characterised in that the markers are designed as dynamic markers of a geometric image (2, 3; 21) which can be changed in terrestrial space, and in that the system (1; 20) has at least three vehicles (4; 5) for forming the dynamic markers, each vehicle (4; 5) being designed to move autonomously in space by means of a control unit, the control unit being designed to control the vehicle (4; 5) in a targeted manner and to encode information in the movement and/or the position of the markers, wherein the control unit of at least one vehicle (4; 5) is designed to move the vehicle (4; 5) from a first marker position of a first image to a second marker position of a second image, wherein the data processing unit is designed to output the recordings of the first image (2; 21), the second image, and if applicable all intermediate images which can be recorded in accordance with a recording speed of the recording unit, processed on the basis of the identified dynamic markers, to a display means of the system (1; 20).
A test system for creating controlled and repeatable out-of-plane fiber distortion in a composite laminate, the test system comprising: a layup tool having a layup surface; two fairing bars attached to the layup surface and spaced opposite to one another; the composite laminate comprising a plurality of stacked plies, the composite laminate laid up on the layup surface of the layup tool and positioned between the two fairing bars; one or more fiber distortion initiators positioned at one or more locations under, and adjacent to, one or more plies of the plurality of stacked plies, each of the one or more fiber distortion initiators comprising a structure having a volume that increases a height of a portion of the one or more plies of the plurality of stacked plies stacked over each of the one or more fiber distortion initiators; and two caul plates positioned over the composite laminate and positioned between the two fairing bars, the two caul plates having a gap in between the two caul plates, wherein when the test system undergoes a pressurized cure process with a vacuum compaction, a restricted outward expansion of the plurality of stacked plies by the two fairing bars, and a pressure differential region formed by the one or more fiber distortion initiators at the one or more locations, create the controlled and repeatable out-of-plane fiber distortion of the one or more plies of the plurality of stacked plies in the composite laminate, at one or more controlled locations in the composite laminate. a layup tool having a layup surface; two fairing bars attached to the layup surface and spaced opposite to one another; the composite laminate comprising a plurality of stacked plies, the composite laminate laid up on the layup surface of the layup tool and positioned between the two fairing bars; one or more fiber distortion initiators positioned at one or more locations under, and adjacent to, one or more plies of the plurality of stacked plies, each of the one or more fiber distortion initiators comprising a structure having a volume that increases a height of a portion of the one or more plies of the plurality of stacked plies stacked over each of the one or more fiber distortion initiators; and two caul plates positioned over the composite laminate and positioned between the two fairing bars, the two caul plates having a gap in between the two caul plates, wherein when the test system undergoes a pressurized cure process with a vacuum compaction, a restricted outward expansion of the plurality of stacked plies by the two fairing bars, and a pressure differential region formed by the one or more fiber distortion initiators at the one or more locations, create the controlled and repeatable out-of-plane fiber distortion of the one or more plies of the plurality of stacked plies in the composite laminate, at one or more controlled locations in the composite laminate.
A compound of formula having a total hydrophilic-lipophilic balance comprised between 3 and 18 being calculated using the Effective Chain Length model as measured according to the method described herein, and wherein A is a group capable of releasing a flavor or fragrance aldehyde of formula (R 1)CHO or a flavor or fragrance ketone of formula (R 1)(R 2)CO and is of formula wherein the wavy line indicates the location of the bond between L and A; R 1 and R 2 represent independently from each other a hydrogen atom or a linear saturated or unsaturated C 1 -C 18 hydrocarbon group, optionally substituted with one to three oxygen atoms in the form of a hydroxyl, carbonyl, ether or ester group, or a branched or cyclic, saturated or unsaturated C 3 -C 18 hydrocarbon group, optionally substituted with one to three oxygen atoms in the form of a hydroxyl, carbonyl, ether or ester group or R 1 and R 2, when taken together, represent a C 4-18 linear, branched or cyclic alkanediyl group, optionally substituted with one to three oxygen atoms in the form of a hydroxyl, carbonyl, ether or ester group, provided that at least one of the R 1 or R 2 groups has 6 consecutive carbon atoms and that both R 1 and R 2 taken together comprise a maximum of 18 carbon atoms; L is a OC 6 H 4 CR 3 2 CR 3 2 group or a (OCH 2 CHR 3) q group wherein R 3 represents a hydrogen atom or a methyl group and q is an integer varying between 3 and 10; and Q is different than L and is a polyimine, a poly(ethylene oxide), a poly(propylene oxide), a polypeptide or a polysaccharide. A is a group capable of releasing a flavor or fragrance aldehyde of formula (R 1)CHO or a flavor or fragrance ketone of formula (R 1)(R 2)CO and is of formula wherein the wavy line indicates the location of the bond between L and A; R 1 and R 2 represent independently from each other a hydrogen atom or a linear saturated or unsaturated C 1 -C 18 hydrocarbon group, optionally substituted with one to three oxygen atoms in the form of a hydroxyl, carbonyl, ether or ester group, or a branched or cyclic, saturated or unsaturated C 3 -C 18 hydrocarbon group, optionally substituted with one to three oxygen atoms in the form of a hydroxyl, carbonyl, ether or ester group or R 1 and R 2, when taken together, represent a C 4-18 linear, branched or cyclic alkanediyl group, optionally substituted with one to three oxygen atoms in the form of a hydroxyl, carbonyl, ether or ester group, provided that at least one of the R 1 or R 2 groups has 6 consecutive carbon atoms and that both R 1 and R 2 taken together comprise a maximum of 18 carbon atoms; L is a OC 6 H 4 CR 3 2 CR 3 2 group or a (OCH 2 CHR 3) q group wherein R 3 represents a hydrogen atom or a methyl group and q is an integer varying between 3 and 10; and Q is different than L and is a polyimine, a poly(ethylene oxide), a poly(propylene oxide), a polypeptide or a polysaccharide.
A system for injecting an intraocular implant into an eye, comprising: an intraocular implant including haptics and having an optical axis; an injector having an injector axis, adapted to have said intraocular implant arranged therein such that said optical axis is parallel to said injector axis; and an intraocular implant displacer; characterized in that said intraocular implant displacer is operative to inject said intraocular implant into the eye by displacing said intraocular implant along an injection axis which is coaxial with said optical axis. an intraocular implant including haptics and having an optical axis; an injector having an injector axis, adapted to have said intraocular implant arranged therein such that said optical axis is parallel to said injector axis; and an intraocular implant displacer; characterized in that said intraocular implant displacer is operative to inject said intraocular implant into the eye by displacing said intraocular implant along an injection axis which is coaxial with said optical axis.