mhurhangee/patent-ind-claim-en huggingface dataset:
Vegetable oil-based binder, characterized in that it consists of: a) 65% to 77% by mass of a vegetable oil fraction; and b) 23% to 35% by mass of a fraction of aliphatic isocyanates, wherein said vegetable oil fraction comprises at least 1% by mass of grape seed oil. a) 65% to 77% by mass of a vegetable oil fraction; and b) 23% to 35% by mass of a fraction of aliphatic isocyanates, wherein said vegetable oil fraction comprises at least 1% by mass of grape seed oil.
A liquid supply unit configured to, with respect to a liquid jet apparatus having a liquid inlet configured to introduce a liquid, supply the liquid to the liquid inlet, comprising: a liquid housing part configured to be detachably mounted in the liquid jet apparatus and configured to house a liquid; a liquid outlet configured to draw the liquid from inside the liquid housing part to outside the liquid housing part ; and a filter provided upstream of the liquid outlet in a channel of the liquid that is drawn from inside the liquid housing part to outside the liquid housing part via the liquid outlet , wherein the filter includes a first filter portion and a second filter portion that are constituted by a plurality of fibers laminated in respective thickness directions of the first filter portion and the second filter portion , the first filter portion is provided upstream of the second filter portion in the channel of the liquid, and a coarseness of the first filter portion is differentiated from a coarseness of the second filter portion . a liquid housing part configured to be detachably mounted in the liquid jet apparatus and configured to house a liquid; a liquid outlet configured to draw the liquid from inside the liquid housing part to outside the liquid housing part ; and a filter provided upstream of the liquid outlet in a channel of the liquid that is drawn from inside the liquid housing part to outside the liquid housing part via the liquid outlet , wherein the filter includes a first filter portion and a second filter portion that are constituted by a plurality of fibers laminated in respective thickness directions of the first filter portion and the second filter portion , the first filter portion is provided upstream of the second filter portion in the channel of the liquid, and a coarseness of the first filter portion is differentiated from a coarseness of the second filter portion .
A force feedback controller comprising: a wrist module , said wrist module including a first limb attachment configured to couple said force feedback controller to the user's arm; and a grip module coupled to said wrist module , said grip module being moveable in a first and second direction relative to said wrist module , said first direction being substantially perpendicular to said second direction , said grip module including a linear slide mechanism having a grip attachment , said grip attachment constrained to linear motion in a third direction substantially perpendicular to at least one of said first and second directions, and wherein said grip attachment is configured to couple a grip to said grip module characterised in that said linear slide mechanism further comprises a linear drive component configured to impart a force on said grip attachment . a wrist module , said wrist module including a first limb attachment configured to couple said force feedback controller to the user's arm; and a grip module coupled to said wrist module , said grip module being moveable in a first and second direction relative to said wrist module , said first direction being substantially perpendicular to said second direction , said grip module including a linear slide mechanism having a grip attachment , said grip attachment constrained to linear motion in a third direction substantially perpendicular to at least one of said first and second directions, and wherein said grip attachment is configured to couple a grip to said grip module characterised in that said linear slide mechanism further comprises a linear drive component configured to impart a force on said grip attachment .
A hydroxyl-containing bis(alkenyl) ether of Formula : CH 2 =CH-(CH 2 ) n -O-(CH 2 ) n -CH(-OH)-CH 2 -S-R 4 -S-CH 2 -CH(-OH)-(CH 2 ) n -O-(CH 2 ) n -CH=CH 2 wherein, each n is independently an integer from 1 to 4; and R 4 comprises C 2-6 n-alkanediyl, C 3-6 branched alkanediyl, C 6-8 cycloalkanediyl, C 6-10 alkanecycloalkanediyl, or -[(-CH 2 -) p -X-] q -(-CH 2 -) r -, wherein, each X is independently selected from -O-, -S-, and -S-S-; each p is independently an integer ranging from 2 to 6; q is an integer from 1 to 5; and r is an integer from 2 to 6. each n is independently an integer from 1 to 4; and R 4 comprises C 2-6 n-alkanediyl, C 3-6 branched alkanediyl, C 6-8 cycloalkanediyl, C 6-10 alkanecycloalkanediyl, or -[(-CH 2 -) p -X-] q -(-CH 2 -) r -, wherein, each X is independently selected from -O-, -S-, and -S-S-; each p is independently an integer ranging from 2 to 6; q is an integer from 1 to 5; and r is an integer from 2 to 6. each X is independently selected from -O-, -S-, and -S-S-; each p is independently an integer ranging from 2 to 6; q is an integer from 1 to 5; and r is an integer from 2 to 6.
An autonomous vehicle, such as an automated guided vehicle (AGV) or an autonomous mobile robot (AMR), comprising: - a support structure , - a plurality of wheels on which said support structure is carried, - at least one electric motor carried by the support structure , for actuating at least one of said wheels, and - one or more electronic control circuits carried by the support structure , said vehicle being characterized in that : - the support structure has a general double-hull configuration, with two separate hulls , parallel to each other and transversely spaced apart, and at least two bridge structures (C1, C2, L1, L2; G1, G2) which connect said hulls to each other, - said plurality of wheels comprises two front wheels and two rear wheels located near the front and rear ends of the two hulls , and - said at least two bridge structures (C1, C2, L1, L2; G1, G2) have ends connected to the two hulls by interposition of elastic joints (E1, E2, E3), - in such a way that the two hulls are free to perform differentiated oscillating movements so as to allow the two front wheels and the two rear wheels to remain in contact with said surface on which the vehicle moves, even when this surface has irregularities and/or slope variations. - a support structure , - a plurality of wheels on which said support structure is carried, - at least one electric motor carried by the support structure , for actuating at least one of said wheels, and - one or more electronic control circuits carried by the support structure , - the support structure has a general double-hull configuration, with two separate hulls , parallel to each other and transversely spaced apart, and at least two bridge structures (C1, C2, L1, L2; G1, G2) which connect said hulls to each other, - said plurality of wheels comprises two front wheels and two rear wheels located near the front and rear ends of the two hulls , and - said at least two bridge structures (C1, C2, L1, L2; G1, G2) have ends connected to the two hulls by interposition of elastic joints (E1, E2, E3), - in such a way that the two hulls are free to perform differentiated oscillating movements so as to allow the two front wheels and the two rear wheels to remain in contact with said surface on which the vehicle moves, even when this surface has irregularities and/or slope variations.
Temperature-control apparatus for controlling a temperature of a cell block of an electrical energy storage device , comprising at least one temperature-control fluid which is guided in a temperature-control channel for controlling the temperature of the cell block , the temperature-control channel having a changing cross-section when viewed in a flow direction of the temperature-control fluid , and a plurality of battery cells of the cell block being arranged next to one another at least in regions when viewed in the flow direction , characterized in that the temperature-control fluid is designed for directly controlling the temperature of the cell block , and the temperature-control channel tapers, in the flow direction , from a first battery cell of the battery cells arranged next to one another to a predetermined portion of the temperature-control channel and the temperature-control channel widens again from the predetermined portion , the temperature-control channel being formed between a sealing plane on the battery cells , which sealing plane is formed substantially in the flow direction , and a housing wall of a housing of the electrical energy storage device .
A light-emitting device comprising: a metal reflective layer having a phase modulation surface; a first electrode on the metal reflective layer; an organic emission layer provided on the first electrode and which emits white light; and a second electrode on the organic emission layer , wherein the metal reflective layer and the second electrode define a micro-cavity of a predetermined resonance wavelength, wherein the phase modulation surface comprises a plurality of protrusions and a plurality of recesses , and wherein the plurality of protrusions resonate a light of a first wavelength, characterised in that the plurality of recesses absorb a light of a second wavelength being smaller than the first wavelength. a metal reflective layer having a phase modulation surface; a first electrode on the metal reflective layer; an organic emission layer provided on the first electrode and which emits white light; and a second electrode on the organic emission layer , wherein the metal reflective layer and the second electrode define a micro-cavity of a predetermined resonance wavelength, wherein the phase modulation surface comprises a plurality of protrusions and a plurality of recesses , and wherein the plurality of protrusions resonate a light of a first wavelength,
A method of handling anchor-based mobility management by an access base station (BS1-BS4) in a communication system , characterized by comprising the steps of: determining whether to establish a S1-MME interface to a mobility management entity (MME) at an anchor base station (ABS1) for a user equipment (UE1) in order to connect the access base station (BS1-BS4) to the mobility management entity (MME) via the anchor base station (ABS1); selecting at least one anchor base station (ABS1) for establishing the S1-MME interface; and requesting the at least one anchor base station (ABS1) to establish the S1-MME interface for the user equipment (UE1) by the access base station (BS1-BS4) of the user equipment (UE1). determining whether to establish a S1-MME interface to a mobility management entity (MME) at an anchor base station (ABS1) for a user equipment (UE1) in order to connect the access base station (BS1-BS4) to the mobility management entity (MME) via the anchor base station (ABS1); selecting at least one anchor base station (ABS1) for establishing the S1-MME interface; and requesting the at least one anchor base station (ABS1) to establish the S1-MME interface for the user equipment (UE1) by the access base station (BS1-BS4) of the user equipment (UE1).
A low activation temperature hot melt adhesive for packaging applications, comprising: a) 50% to 90% by weight of a metallocene catalyzed polyolefin polymer having: a density of 0.900 g/cc or less according to ASTM D792; a melt enthalpy of 70 Joules/gram or less; and a melt index of 1 g/10 min to 35 g/10 min as measured in accordance with ASTM D1238 for 10 min with a weight of 2.16kg, and at 190°C.; b) 5% to 50% by weight of a tackifying resin; c) 0.5% to 40% by weight of a wax; d) 0.1% to 5% by weight of a stabilizer or antioxidant; and wherein the adhesive has an activation temperature of 71.1°C (160°F) or less, and has a viscosity of greater than 50,000 mPa·s at 148.8°C (300°F) and wherein the metallocene catalyzed polyolefin polymer is a copolymer of ethylene or propylene with C 4 to C 10 -alpha-olefins. a) 50% to 90% by weight of a metallocene catalyzed polyolefin polymer having: a density of 0.900 g/cc or less according to ASTM D792; a melt enthalpy of 70 Joules/gram or less; and a melt index of 1 g/10 min to 35 g/10 min as measured in accordance with ASTM D1238 for 10 min with a weight of 2.16kg, and at 190°C.; b) 5% to 50% by weight of a tackifying resin; c) 0.5% to 40% by weight of a wax; d) 0.1% to 5% by weight of a stabilizer or antioxidant; and
A method of measuring an object with a camera probe for capturing an image of an object, the camera probe and object being movable relative to each other by a measurement apparatus comprising a coordinate positioning machine to which the camera probe is mounted, at least a part of the camera probe being rotatable about at least one axis, the method comprising: a) the measurement apparatus moving the camera probe and the object relative to each other; and b) characterised in that for at least one period during said relative movement turning at least a part of the camera probe about the at least one axis thereby slowing the passage of a feature of interest to be measured on the object across the camera probe's field of view, and capturing at least one image of the feature of interest during at least a portion of said turning. a) the measurement apparatus moving the camera probe and the object relative to each other; and b) characterised in that for at least one period during said relative movement turning at least a part of the camera probe about the at least one axis thereby slowing the passage of a feature of interest to be measured on the object across the camera probe's field of view, and capturing at least one image of the feature of interest during at least a portion of said turning.
A system to adjust light path length comprising a digital light path length modulator, the digital light path length modulator comprising: a polarization modulator to receive polarized light and to modulate a polarization of some or all of the polarized light; and an optical path length extender [OPLE] having an entry surface and an exit surface, to direct the light entering the OPLE with a first polarization through the entry surface and along a first light path through the OPLE to exit through the exit surface, and to direct the light entering the OPLE with a second polarization through the entry surface and along a second light path through the OPLE to exit through the exit surface, the second light path through the OPLE having a light path length two or more times longer than the first light path length through the OPLE; the OPLE comprising: angled polarization sensitive reflective elements reflecting the light having the second polarization; and blackout lines on a surface of the OPLE, along lines formed by the polarization sensitive reflective elements on the surface of the OPLE, to block a portion of the light. a polarization modulator to receive polarized light and to modulate a polarization of some or all of the polarized light; and an optical path length extender [OPLE] having an entry surface and an exit surface, to direct the light entering the OPLE with a first polarization through the entry surface and along a first light path through the OPLE to exit through the exit surface, and to direct the light entering the OPLE with a second polarization through the entry surface and along a second light path through the OPLE to exit through the exit surface, the second light path through the OPLE having a light path length two or more times longer than the first light path length through the OPLE; the OPLE comprising: angled polarization sensitive reflective elements reflecting the light having the second polarization; and blackout lines on a surface of the OPLE, along lines formed by the polarization sensitive reflective elements on the surface of the OPLE, to block a portion of the light. angled polarization sensitive reflective elements reflecting the light having the second polarization; and blackout lines on a surface of the OPLE, along lines formed by the polarization sensitive reflective elements on the surface of the OPLE, to block a portion of the light.
Multifunctional thermal and acoustic insulation system for an aircraft , the system adapted to be received between an inner surface of an aircraft primary structure, such as an aircraft fuselage structure , and a surface of a panel arrangement delimiting an aircraft cabin, the surface facing away from the aircraft cabin, and comprising: - a multilayer structure having a thermal and acoustic damping performance and comprising, in a stacked arrangement, o a continuous first outer layer , o a core layer and o a continuous second outer layer , wherein the core layer is received between the first and second outer layers so that the first and second outer layers cover the core layer at least on opposite sides thereof, and - a plurality of functional components formed integrally and non-exchangeably with the multilayer structure , wherein functions of the functional components are related to at least one of the thermal and the acoustic damping performance of the multilayer structure and wherein the functional components are provided on a first outer layer side of the core layer and/or on a second outer layer side of the core layer , wherein the multilayer structure comprises two or more modular panel-like blanket sections of the stacked layer arrangement and the functional components are integrated in each modular panel-like blanket section ; characterized in that functional components of two adjacent modular panel-like blanket sections are interconnectable via interconnecting points at adjacent edges of the modular panel-like blanket sections to allow joint control of said interconnected functional components of the two adjacent modular panel-like blanket sections , and wherein the system further comprises a control unit for said joint control of said interconnected functional components of two adjacent modular panel-like blanket sections so that provision of a separate control unit for each modular panel-like section is avoided. - a multilayer structure having a thermal and acoustic damping performance and comprising, in a stacked arrangement, o a continuous first outer layer , o a core layer and o a continuous second outer layer , wherein the core layer is received between the first and second outer layers so that the first and second outer layers cover the core layer at least on opposite sides thereof, and o a continuous first outer layer , o a core layer and o a continuous second outer layer , - a plurality of functional components formed integrally and non-exchangeably with the multilayer structure , wherein functions of the functional components are related to at least one of the thermal and the acoustic damping performance of the multilayer structure and wherein the functional components are provided on a first outer layer side of the core layer and/or on a second outer layer side of the core layer ,
A flexible optical circuit comprising: a flexible substrate defining a perimeter ; an adhesive layer on at least a portion of said substrate ; and a plurality of fibers laid out on said adhesive layer, wherein each end of each fiber of said plurality of fibers extends from said perimeter to define a plurality of fiber extensions wherein at least a portion of said fiber extensions are discrete, single-fiber extension ; characterised in that the substrate comprises opposed first and second substrates configured to sandwich said adhesive layer and at least a portion of said plurality of fibers and the optical circuit further comprises a protective coating around at least a portion of each of said discrete single-fiber extensions said protective coatings extending inwardly from said perimeter and configured to provide strain relief for said each of said discrete single-fiber extensions . a flexible substrate defining a perimeter ; an adhesive layer on at least a portion of said substrate ; and a plurality of fibers laid out on said adhesive layer, wherein each end of each fiber of said plurality of fibers extends from said perimeter to define a plurality of fiber extensions wherein at least a portion of said fiber extensions are discrete, single-fiber extension ; characterised in that the substrate comprises opposed first and second substrates configured to sandwich said adhesive layer and at least a portion of said plurality of fibers and the optical circuit further comprises a protective coating around at least a portion of each of said discrete single-fiber extensions said protective coatings extending inwardly from said perimeter and configured to provide strain relief for said each of said discrete single-fiber extensions .
Portable electric power tool , in particular angle grinder or the like, comprising: a drive unit , which is able to be switched on and off by a user by means of a manual actuating element , having an armature shaft, a braking device for braking the armature shaft after the drive unit has been switched off, having a brake disc that is connected to the armature shaft for conjoint rotation, having a counterpart brake disc that is held in a non-rotatable manner in a housing part of the portable electric power tool and is resiliently preloaded in the direction of the brake disc by means of an elastic return element , and having a coupling device that couples the manual actuating element to the counterpart brake disc , wherein the manual actuating element comprises a switch lock , which, in a first switching position of the manual actuating element in which the counterpart brake disc bears against the brake disc , prevents the drive unit from being switched on, and, in a second switching position of the manual actuating element in which the counterpart brake disc is released from the brake disc , allows the drive unit to be switched on, characterized in that the manual actuating element is designed to execute a combined switching movement comprising a first switching movement (S1), in particular in translation, between the first and second switching position and a second switching movement (S2), in particular in rotation, into a third switching position, in which the actuating element is able to switch on the drive unit . a drive unit , which is able to be switched on and off by a user by means of a manual actuating element , having an armature shaft, a braking device for braking the armature shaft after the drive unit has been switched off, having a brake disc that is connected to the armature shaft for conjoint rotation, having a counterpart brake disc that is held in a non-rotatable manner in a housing part of the portable electric power tool and is resiliently preloaded in the direction of the brake disc by means of an elastic return element , and having a coupling device that couples the manual actuating element to the counterpart brake disc , wherein the manual actuating element comprises a switch lock , which, in a first switching position of the manual actuating element in which the counterpart brake disc bears against the brake disc , prevents the drive unit from being switched on, and, in a second switching position of the manual actuating element in which the counterpart brake disc is released from the brake disc , allows the drive unit to be switched on, characterized in that the manual actuating element is designed to execute a combined switching movement comprising a first switching movement (S1), in particular in translation, between the first and second switching position and a second switching movement (S2), in particular in rotation, into a third switching position, in which the actuating element is able to switch on the drive unit .