mhurhangee/patent-ind-claim-en huggingface dataset:
A chain saw , comprising: a housing extending substantially along a front and rear direction and formed with an accommodation space; an electric motor at least partially disposed in the accommodation space; a transmission system connected to the electric motor and capable of outputting a driving force; a control system comprising a circuit board assembly extending in a plane; and a power supply assembly disposed on a rear side of the housing and used for powering the electric motor ; wherein the circuit board assembly obliquely intersects with a first straight line extending along the front and rear direction; in a direction of a second straight line perpendicular to a direction of the first straight line and extending along an up and down direction, wherein the electric motor has a projection surface perpendicular to the direction of the second straight line and the circuit board assembly has a first projection surface perpendicular to the direction of the second straight line ; and the projection surface of the electric motor at least partially overlaps the first projection surface of the circuit board assembly; characterized in that in the direction of the first straight line , the power supply assembly has a projection surface perpendicular to the direction of the first straight line and the circuit board assembly has a second projection surface perpendicular to the direction of the first straight line ; and the projection surface of the power supply assembly at least partially overlaps the second projection surface of the circuit board assembly. a housing extending substantially along a front and rear direction and formed with an accommodation space; an electric motor at least partially disposed in the accommodation space; a transmission system connected to the electric motor and capable of outputting a driving force; a control system comprising a circuit board assembly extending in a plane; and a power supply assembly disposed on a rear side of the housing and used for powering the electric motor ; wherein the circuit board assembly obliquely intersects with a first straight line extending along the front and rear direction; in a direction of a second straight line perpendicular to a direction of the first straight line and extending along an up and down direction, wherein the electric motor has a projection surface perpendicular to the direction of the second straight line and the circuit board assembly has a first projection surface perpendicular to the direction of the second straight line ; and the projection surface of the electric motor at least partially overlaps the first projection surface of the circuit board assembly; characterized in that in the direction of the first straight line , the power supply assembly has a projection surface perpendicular to the direction of the first straight line and the circuit board assembly has a second projection surface perpendicular to the direction of the first straight line ; and the projection surface of the power supply assembly at least partially overlaps the second projection surface of the circuit board assembly.
A network comprising: antenna circuitry to receive incoming signals from and transmit outgoing signals to a base station ; remote modem circuitry , connected to the antenna circuitry by analog cabling, to demodulate a first incoming signal of the incoming signals to produce first incoming data; and control circuitry , remote from the remote modem circuitry and connected to the remote modem circuitry via digital cabling to control a behaviour of the remote modem circuitry and to receive the first incoming data from the remote modem circuitry, wherein the network is configured to be split across a boundary of a vehicle (100; 400) such that the control circuitry is internal to the vehicle and the remote modem circuitry and antenna circuitry are external to the vehicle. antenna circuitry to receive incoming signals from and transmit outgoing signals to a base station ; remote modem circuitry , connected to the antenna circuitry by analog cabling, to demodulate a first incoming signal of the incoming signals to produce first incoming data; and control circuitry , remote from the remote modem circuitry and connected to the remote modem circuitry via digital cabling to control a behaviour of the remote modem circuitry and to receive the first incoming data from the remote modem circuitry, wherein the network is configured to be split across a boundary of a vehicle (100; 400) such that the control circuitry is internal to the vehicle and the remote modem circuitry and antenna circuitry are external to the vehicle.
A method of producing a dairy concentrate, comprising the steps of: providing an ingredient composition comprising micellar caseins and whey proteins and having a pH of 6.1 - 7.1 and a concentration of 3 - 25 wt.% of proteins, and wherein the ingredient composition has a casein to whey protein ratio of 90/10 - 60/40, adding 3 - 25 mM divalent cations to provide a concentration of 3 - 8 mM free divalent cations in the ingredient composition, homogenising the ingredient composition; and subsequently pasteurising and stirring the ingredient composition at a temperature of 80°- 105°C for a period of 0.5 - 3 min to form agglomerated proteins comprising caseins and beta-lactoglobulin from the whey proteins, the agglomerates having a size of 3 - 50 microns as measured by D mean diameter, and wherein the ingredient composition is a concentrate comprises 6 - 55 wt.% milk solids, and wherein the divalent cations are Ca. providing an ingredient composition comprising micellar caseins and whey proteins and having a pH of 6.1 - 7.1 and a concentration of 3 - 25 wt.% of proteins, and wherein the ingredient composition has a casein to whey protein ratio of 90/10 - 60/40, adding 3 - 25 mM divalent cations to provide a concentration of 3 - 8 mM free divalent cations in the ingredient composition, homogenising the ingredient composition; and subsequently pasteurising and stirring the ingredient composition at a temperature of 80°- 105°C for a period of 0.5 - 3 min to form agglomerated proteins comprising caseins and beta-lactoglobulin from the whey proteins, the agglomerates having a size of 3 - 50 microns as measured by D mean diameter, and wherein the ingredient composition is a concentrate comprises 6 - 55 wt.% milk solids, and wherein the divalent cations are Ca.
An accelerometer comprising: a controller ; a light source operatively coupled to said controller ; a bifurcated waveguide coupled to said light source and configured to receive light output by said light source , said bifurcated waveguide comprising: a first waveguide portion ; and a second waveguide portion ; a first resonator operatively coupled to said controller , said first resonator configured to receive light from said first waveguide portion , said first resonator comprising a first proof mass ; and a second resonator operatively coupled to said controller , said second resonator configured to receive light from said second waveguide portion , said second resonator comprising a second proof mass ; wherein said first proof mass comprises: a central portion ; a first spring ; a first portion coupled to said central portion by said first spring ; a second spring ; and a second portion coupled to said central portion by said second spring . a controller ; a light source operatively coupled to said controller ; a bifurcated waveguide coupled to said light source and configured to receive light output by said light source , said bifurcated waveguide comprising: a first waveguide portion ; and a second waveguide portion ; a first waveguide portion ; and a second waveguide portion ; a first resonator operatively coupled to said controller , said first resonator configured to receive light from said first waveguide portion , said first resonator comprising a first proof mass ; and a second resonator operatively coupled to said controller , said second resonator configured to receive light from said second waveguide portion , said second resonator comprising a second proof mass ; a central portion ; a first spring ; a first portion coupled to said central portion by said first spring ; a second spring ; and a second portion coupled to said central portion by said second spring .
Method for configuring an electronic system , the electronic system being a configurable system for transferring data, the electronic system comprising: - at least one electronic module for processing data, and - a plurality of pairs of unidirectional links for transferring data, each unidirectional link comprising at least one controllable unidirectional component which is controllable between an activated configuration for transferring data and a deactivated configuration for blocking data, each respective pair of unidirectional links being connected to at least one electronic module and comprising two unidirectional links arranged in opposite directions, the electronic modules being arranged in the form of a matrix, at least one controllable unidirectional component being an optical component, the electronic system comprising at least six electronic modules , at least three electronic modules each being connectable to at least one element external to the electronic system by at least one unidirectional link for transferring data from the external element to the module and at least one unidirectional link for transferring data from the module to the external element, the method comprising: - sending a deactivation command for each component , and - sending an activation command for a selection of components in order to define a data transfer path, during the step of sending an activation command , the selection of components being activated in order to permit the bidirectional transfer of data between three external elements and the at least three electronic modules and to permit the unidirectional transfer of data between the at least three modules and the at least three other electronic modules , the three external elements being three networks , the electronic system then forming an asymmetric multilevel system. - at least one electronic module for processing data, and - a plurality of pairs of unidirectional links for transferring data, each unidirectional link comprising at least one controllable unidirectional component which is controllable between an activated configuration for transferring data and a deactivated configuration for blocking data, - sending a deactivation command for each component , and - sending an activation command for a selection of components in order to define a data transfer path,
A battery pack including: a housing including a support portion connectable to and supportable by an electrical device, the housing also including a bottom wall opposite the support portion, opposite side walls connected between the bottom wall and the support portion and opposite end walls connected between the bottom wall and the support portion and between the side walls, adjacent walls meeting at an edge ; elastomeric material on at least one edge , characterized in that the elastomeric material being thickest proximate the edge and thinning in a direction away from the edge; wherein the battery pack further includes a plurality of battery cells supported by the housing ; and a battery terminal electrically connected to the plurality of battery cells and connectable to a terminal of the electrical device, wherein the support portion includes a body and a rail extending along an axis , the rail and the body defining a space therebetween, the space having a first dimension proximate a first axial location, a second dimension at a second axial location, and a third dimension at a third axial location, the first dimension, the second dimension, and the third dimension being different, and wherein the rail has a stepped rail surface extending along the axis, the stepped rail surface having a first rail surface portion proximate the first axial location, a second rail surface portion proximate the second axial location, and a third rail surface portion proximate the third axial location. a housing including a support portion connectable to and supportable by an electrical device, the housing also including a bottom wall opposite the support portion, opposite side walls connected between the bottom wall and the support portion and opposite end walls connected between the bottom wall and the support portion and between the side walls, adjacent walls meeting at an edge ; elastomeric material on at least one edge , characterized in that the elastomeric material being thickest proximate the edge and thinning in a direction away from the edge; wherein the battery pack further includes a plurality of battery cells supported by the housing ; and a battery terminal electrically connected to the plurality of battery cells and connectable to a terminal of the electrical device, wherein the support portion includes a body and a rail extending along an axis , the rail and the body defining a space therebetween, the space having a first dimension proximate a first axial location, a second dimension at a second axial location, and a third dimension at a third axial location, the first dimension, the second dimension, and the third dimension being different, and wherein the rail has a stepped rail surface extending along the axis, the stepped rail surface having a first rail surface portion proximate the first axial location, a second rail surface portion proximate the second axial location, and a third rail surface portion proximate the third axial location.
A composition comprising at least one oil, and a first composition comprising the following: A) a first composition A comprising an ethylene/a-olefin/non-conjugated diene interpolymer A, B) an ethylene/a-olefin/non-conjugated diene interpolymer B; and wherein the weight ratio of component A to component B is from 1/1 to 20/1; wherein the weight average molecular weight (Mw) of the ethylene/a-olefin/non-conjugated diene B is greater than the weight average molecular weight (Mw) of the first composition A; wherein the composition has a Mooney Viscosity (ML1+4, 100°C) from 20 to 100; and wherein the first composition meets the following Equation A: 4.50 < [(Mz/Mn) (first comp.) )/(TD0.1 (first comp.) )] < 8.00 (Eqn. A), wherein TD0.1 (first comp.) is the tan delta of the first composition at 0.1 rad/sec and 190°C. A) a first composition A comprising an ethylene/a-olefin/non-conjugated diene interpolymer A, B) an ethylene/a-olefin/non-conjugated diene interpolymer B; and wherein the weight average molecular weight (Mw) of the ethylene/a-olefin/non-conjugated diene B is greater than the weight average molecular weight (Mw) of the first composition A; wherein the composition has a Mooney Viscosity (ML1+4, 100°C) from 20 to 100; and wherein the first composition meets the following Equation A: 4.50 < [(Mz/Mn) (first comp.) )/(TD0.1 (first comp.) )] < 8.00 (Eqn. A), wherein TD0.1 (first comp.) is the tan delta of the first composition at 0.1 rad/sec and 190°C.
Tap for storing pressurised fluid, in particular hydrogen gas, comprising a body housing a fluid circuit comprising a first end intended to be connected with the orifice of at least one pressurised fluid storage , at least one second drawing end intended to be connected to a receiving circuit to make it possible to supply fluid drawn from the storage via the circuit , at least one third filling end intended to be connected to a pressurised gas source to make it possible for the filling of the storage via the circuit , the second and third ends being connected to the first end via respectively a branch for drawing from the circuit and a branch for filling the circuit , the drawing and filling branches being connected in parallel to the first end of the circuit and each comprising a set of valve(s), the circuit comprising two separate drawing ends fluidically connected to the drawing branch and opening onto the body of the tap at the level respectively of two separate orifices, characterised in that the two separate drawing ends are situated downstream from the set of valve(s) of the drawing branch and fluidically communicate together and with the drawing branch , i.e. that the gas drawn through one or the other of the ends has passed through the same set of valve(s) of the drawing branch .
A method performed by an access point, AP, (no, 300), the method comprising: selecting a number of basic service sets, BSSs, (BSS1 - BSSn) from a plurality of BSSs (BSS1 - BSSn), wherein the selected number of BSSs (BSS1 - BSSn) is a subset of the plurality of BSSs (BSS1 - BSSn); allocating one or more random resource units, RUs, to each of the selected BSSs (BSS1 - BSSn); and transmitting a frame indicating the allocation of the one or more random RUs to each of the selected BSSs (BSS1 - BSSn). selecting a number of basic service sets, BSSs, (BSS1 - BSSn) from a plurality of BSSs (BSS1 - BSSn), wherein the selected number of BSSs (BSS1 - BSSn) is a subset of the plurality of BSSs (BSS1 - BSSn); allocating one or more random resource units, RUs, to each of the selected BSSs (BSS1 - BSSn); and transmitting a frame indicating the allocation of the one or more random RUs to each of the selected BSSs (BSS1 - BSSn).
An injection mold comprising a first and a second mold part together defining a space, said space being suitable for receiving a pane element , wherein the first mold part comprises support means for defining a predetermined position of the pane element within the space, wherein the second mold part comprises a pressure plate movable within said space for pressing the pane element against the first mold part and for delimiting a cavity for receiving injected polymer thereby defining the shape of a portion of a border element to be molded onto a circumferential portion of the pane element , characterized in that one or more primary actuators are operatively connected to the pressure plate for controlling the position of the pressure plate within the space, wherein the pressure plate comprises a circumferential plate portion for pressing a circumferential portion of the pane element against the first mold part , wherein a plurality of secondary actuators are operatively connected to respective attachment portions of the circumferential plate portion of the pressure plate for controlling the position of each respective attachment portion within said space, and wherein the shape of the pressure plate can be adjusted by operating one or more primary or secondary actuators.
A malodor counteracting composition comprising a malodor counteractant that is capable of neutralizing a malodor and a stabilizer that is capable of decreasing or preventing self-polymerization of the malodor counteractant, wherein the malodor counteractant has a backbone and one or more reactive end groups that are covalently attached to the backbone, the backbone has a molecular weight of 100 to 50,000 Daltons, the one or more reactive end groups each have an α,β-unsaturated carbonyl group, and the stabilizer is selected from the group consisting of methyl-3-(3,5-di-tert-butyl-4-hydroxyphenyl)propanoate, hydroquinone monomethyl ether, butylated hydroxy toluene, butylated hydroxy anisole, a tocopherol, and any combination thereof.
A method , implemented using a monitoring tool disposed between a Network Data Analytics Function, NWDAF , of a Service-Based Architecture, SBA , and a Network Repository Function, NRF , the method comprising steps of: obtaining parameters associated with User Plane, UP, traffic and Control Plane, CP, traffic from the SBA , of a 5G network, performing analytics on the obtained parameters to monitor Network Functions, NFs, associated with the 5G network, and providing results of the analytics to the NRF , via an interface , to control NFs stored in a repository associated with the NRF , wherein the results include commands related to the control of the NFs. obtaining parameters associated with User Plane, UP, traffic and Control Plane, CP, traffic from the SBA , of a 5G network, performing analytics on the obtained parameters to monitor Network Functions, NFs, associated with the 5G network, and providing results of the analytics to the NRF , via an interface , to control NFs stored in a repository associated with the NRF , wherein the results include commands related to the control of the NFs.
An article of footwear comprising: an upper ; an outsole attached to the upper and including a ground-engaging surface ; and a midsole disposed between the upper and the outsole and including a series of walls that define a series of channels extending substantially perpendicular to a longitudinal axis of the midsole and along an entire length of the midsole, the series of channels being isolated from one another and each receiving a quantity of foam beads therein. an upper ; an outsole attached to the upper and including a ground-engaging surface ; and a midsole disposed between the upper and the outsole and including a series of walls that define a series of channels extending substantially perpendicular to a longitudinal axis of the midsole and along an entire length of the midsole, the series of channels being isolated from one another and each receiving a quantity of foam beads therein.
An apparatus comprising: logic , at least a portion of the logic in hardware, the logic located with user equipment, UE, capable of operating in compliance with one or more 3 rd Generation Partnership Project, 3 GPP, Long Term Evolution, LTE, standards including LTE-Advanced, LTE-A, the logic configured to: receive power offset information in a radio resource control, RRC, information element, IE, the power offset information comprising a first power parameter information for a serving physical downlink shared channel, PDSCH and/or a co- scheduled PDSCH, wherein the serving PDSCH and the co-scheduled PDSCH share same time frequency resources to form a multiplexed PDSCH, the RRC IE comprising a PDSCH-config IE; receive downlink control information indicating modulation information for the serving PDSCH; and determine, for one or more resource blocks, RBs comprising the multiplexed PDSCH, a first detected power offset value for the serving PDSCH and a second detected power offset value for the co- scheduled PDSCH based on the power offset information and the modulation information. receive power offset information in a radio resource control, RRC, information element, IE, the power offset information comprising a first power parameter information for a serving physical downlink shared channel, PDSCH and/or a co- scheduled PDSCH, wherein the serving PDSCH and the co-scheduled PDSCH share same time frequency resources to form a multiplexed PDSCH, the RRC IE comprising a PDSCH-config IE; receive downlink control information indicating modulation information for the serving PDSCH; and determine, for one or more resource blocks, RBs comprising the multiplexed PDSCH, a first detected power offset value for the serving PDSCH and a second detected power offset value for the co- scheduled PDSCH based on the power offset information and the modulation information.