mhurhangee/ep-ind-claims huggingface dataset:
A camera module, comprising: a first camera module and a second camera module spaced apart from the first camera module, wherein the first camera module comprises a cover; a housing disposed in the cover; a bobbin disposed in the housing; a first coil disposed on the bobbin; a first magnet disposed on the housing; a second coil facing the first magnet; a second magnet disposed on the bobbin; and a first sensor detecting the second magnet, wherein the cover comprises a first lateral plate disposed adjacent to the second camera module, a second lateral plate disposed opposite to the first lateral plate, and a third lateral plate and a fourth lateral plate disposed opposite to each other between the first lateral plate and the second lateral plate, wherein the first magnet comprises a first-first magnet disposed at a position corresponding to the second lateral plate, a first-second magnet disposed at a position corresponding to the third lateral plate, and a first-third magnet disposed at a position corresponding to the fourth lateral plate, and wherein a first dummy member and the first sensor are disposed at a position corresponding to the first lateral plate of the cover, characterized in that the first dummy member comprises two dummy members spaced apart from each other, and when viewed from below, the second magnet is disposed between the two dummy members. a first camera module and a second camera module spaced apart from the first camera module, wherein the first camera module comprises a cover; a housing disposed in the cover; a bobbin disposed in the housing; a first coil disposed on the bobbin; a first magnet disposed on the housing; a second coil facing the first magnet; a second magnet disposed on the bobbin; and a first sensor detecting the second magnet, wherein the cover comprises a first lateral plate disposed adjacent to the second camera module, a second lateral plate disposed opposite to the first lateral plate, and a third lateral plate and a fourth lateral plate disposed opposite to each other between the first lateral plate and the second lateral plate, wherein the first magnet comprises a first-first magnet disposed at a position corresponding to the second lateral plate, a first-second magnet disposed at a position corresponding to the third lateral plate, and a first-third magnet disposed at a position corresponding to the fourth lateral plate, and wherein a first dummy member and the first sensor are disposed at a position corresponding to the first lateral plate of the cover, characterized in that the first dummy member comprises two dummy members spaced apart from each other, and when viewed from below, the second magnet is disposed between the two dummy members.
Positive electrode/electrolyte pair for a lithium battery, characterised in that: the positive electrode is made from a material with a spinel structure based on formula below and has a lattice parameter of between 8.167 and 8.190 Δ: Li y Ni 0,5-x Mn 1,5+x O 4-δ Formula in which: 0.9 < y ≤ 1.1; 0 ≤ x ≤ 0.1; and δ ≤ 0, and in that: the electrolyte is a solution of a lithium salt comprising at least a first additive selected from butane-1,4-dicarboxylic anhydride and 2-methylene butane-1,4-dicarboxylic anhydride. the positive electrode is made from a material with a spinel structure based on formula below and has a lattice parameter of between 8.167 and 8.190 Δ: Li y Ni 0,5-x Mn 1,5+x O 4-δ Formula in which: 0.9 < y ≤ 1.1; 0 ≤ x ≤ 0.1; and δ ≤ 0, and in that: 0.9 < y ≤ 1.1; 0 ≤ x ≤ 0.1; and δ ≤ 0, the electrolyte is a solution of a lithium salt comprising at least a first additive selected from butane-1,4-dicarboxylic anhydride and 2-methylene butane-1,4-dicarboxylic anhydride.
Robotic device for preparing a surface of a thermoplastic part with plasma, this device comprising, on the one hand, first means for holding a thermoplastic part and, on the other hand, second means for holding a plasma torch having a rotary cylindrical end-fitting, the first and/or second holding means (2, 6) being movable so that the torch and the part have a relative movement allowing the torch to travel over a treatment zone of the part, the device comprising, on the plasma torch, means (10, 11, 11') for controlling the distance between the end-fitting of the torch and the part, characterized in that the controlling means comprise a rod placed axially on the end-fitting of the plasma torch, in that the device comprises a carriage that is movable in the direction of the axis of the torch, which carriage is interposed between the movable torch and the second holding means, and in that the movable carriage comprises means for producing a counter-reaction to a movement about a position of equilibrium or abutment.
A powderous electrode active material of lithium transition metal oxide Li a M b O 2 - where 0.9 < a < 1.1, 0.9 < b < 1.1 and M is a composition containing at least one transition metal selected from the group consisting of Mn, Co and Ni - having particles with a distribution of sizes - where the active material have a broad particle size distribution specified that the size ratio of large to small particles exceeds 2, d90 / d10 > 2 where d90, the size of large particles is defined that particles with larger size constitute a fraction of 10% of the total mass of the powder and d10, the size of small particles is defined that particles with smaller size constitute a fraction of 10% of the total mass of the powder, and - where all bulk of all particles has a layered crystal structure, the larger particles have a composition Li a M b O 2 where M=Mn x Ni y (Co 1-x-y) with x+y<0.35 and the smaller particles have a different composition Li a M b 0 2 where M=Mn x' Ni y' (Co 1-x'-y') with at least 10% less cobalt (1-x'-y') < 0.9*(1-x-y) and at least 5% more manganese x'-x>0.05. - where 0.9 < a < 1.1, 0.9 < b < 1.1 and M is a composition containing at least one transition metal selected from the group consisting of Mn, Co and Ni - having particles with a distribution of sizes - where the active material have a broad particle size distribution specified that the size ratio of large to small particles exceeds 2, d90 / d10 > 2 where d90, the size of large particles is defined that particles with larger size constitute a fraction of 10% of the total mass of the powder and d10, the size of small particles is defined that particles with smaller size constitute a fraction of 10% of the total mass of the powder, and - where all bulk of all particles has a layered crystal structure, the larger particles have a composition Li a M b O 2 where M=Mn x Ni y (Co 1-x-y) with x+y<0.35 and the smaller particles have a different composition Li a M b 0 2 where M=Mn x' Ni y' (Co 1-x'-y') with at least 10% less cobalt (1-x'-y') < 0.9*(1-x-y) and at least 5% more manganese x'-x>0.05.
A fin for swimming and underwater activities of the type comprising at least one foot pocket adapted to accommodate the foot of a user and at least one blade associated rigidly with said foot pocket, characterized in that a substantially spherical joint is interposed between said blade and said foot pocket, an upper portion of said joint being rigidly coupled to the base of said foot pocket, a lower portion of said joint being rigidly coupled to said blade in a portion that is proximate to a respective first end, said joint being lockable in a plurality of different configurations and introducing at least two degrees of rotational freedom between the blade and the foot pocket.
An auxiliary device for the replacement of at least partially contaminated fluid filter elements which can respectively be removed from a discharge opening of a filter housing and be replaced with a new filter element, comprising an attachment portion, which can be attached at this discharge opening, and a receiving portion which, upon moving the filter element out of the discharge opening, receives substances that become detached, in particular drip off, the attachment portion being in the form of a tube component which can be placed on the end of the filter housing surrounding the discharge opening, and that the receiving portion has a bowl portion or plate portion at least partially surrounding the free end edge of the tube component, the end edge of the tube component projecting upwardly over the bottom of the bowl portion, characterised in that there is at least one opening in the wall of the projecting portion of the tube component, at which opening a filter is disposed.
A connection arrangement for use in establishing a connection with an object, comprising a body; a plurality of dogs each pivotally arranged relative to the body about a pivot support and each including an engagement feature, the dogs being pivotal in reverse directions between an engaged configuration in which the respective engagement features are engaged with the object to provide a connection thereto, and a disengaged configuration in which the respective engagement features are disengaged from the object; and an actuator member (12, 50) comprising a first actuation surface arranged to cooperate with a complementary second actuation surface provided on each dog when the actuator member (12, 50) moves in reverse directions between first and second positions to cause the plurality of dogs to pivot between their engaged and disengaged configurations, characterized in that the first actuation surface on the actuator member (12, 50) includes a first cam and a second cam which are in continuous contact with the second actuation surface of each dog such that three points of continuous contact are defined between each dog, its respective pivot support, and the first and second cams (22, 24), to fix the position of each dog relative to a given position of the actuator member (12, 50).
A method for sending messages, characterized by comprising: acquiring, by a message sending end, exit encapsulation table information corresponding to a Pseudowire, PW, label; and after determining to add a control word in a current message according to a control word identifier in the exit encapsulation table information, adding the control word in the current message and sending the current message. acquiring, by a message sending end, exit encapsulation table information corresponding to a Pseudowire, PW, label; and after determining to add a control word in a current message according to a control word identifier in the exit encapsulation table information, adding the control word in the current message and sending the current message.
Monitoring system configured to monitor parameters in the avionics or automotive industry, including a network device interface, NDI, adapted to interconnect a bus controller with an associated data channel via a common digital bus, the network device interface comprising: a data receiver for receiving messages from the bus controller via the common digital bus; said network device interface providing commands to the associated data channel in response to messages received by said receiver and for receiving data from the associated data channel; and a NDI device's transmitter for transmitting messages to the bus controller via the common digital bus, wherein the NDI device continuously checks the signal received on a second receiver using a clock detector; the clock detector of the NOI device determines whether a clock signal accompanies the data from the bus controller; and said NDI device comprises: means for determining the mode or bit rate of the received message, a bit rate detector for determining a bit rate at which the messages are received in an asynchronous mode, wherein said NDI device's transmitter transmits messages at the same bit rate at which messages are received, if said clock detector determines that the messages that are received are without any accompanying synchronous clock signals, the NDI determining that the bus controller is operating in the asynchronous mode, and wherein said NDI device's transmitter is capable of altering the bit rate at which messages are transmitted in accordance with alterations of the bit rate at which messages are received. a data receiver for receiving messages from the bus controller via the common digital bus; said network device interface providing commands to the associated data channel in response to messages received by said receiver and for receiving data from the associated data channel; and a NDI device's transmitter for transmitting messages to the bus controller via the common digital bus, wherein the NDI device continuously checks the signal received on a second receiver using a clock detector; the clock detector of the NOI device determines whether a clock signal accompanies the data from the bus controller; and said NDI device comprises: means for determining the mode or bit rate of the received message, a bit rate detector for determining a bit rate at which the messages are received in an asynchronous mode, wherein said NDI device's transmitter transmits messages at the same bit rate at which messages are received, if said clock detector determines that the messages that are received are without any accompanying synchronous clock signals, the NDI determining that the bus controller is operating in the asynchronous mode, and wherein said NDI device's transmitter is capable of altering the bit rate at which messages are transmitted in accordance with alterations of the bit rate at which messages are received.
Floor of a rear luggage compartment for a motor vehicle, said floor being made from plastic material or composite material and comprising a metal beam with a U-shaped cross-section extending along the middle of the floor in the longitudinal direction of the vehicle, the ends of the two side wings (2a, 2b) of the U formed by the beam being connected to the floor, characterised in that the rear portion of said beam is reinforced by a metal insert with a U-shaped cross-section, engaged and secured on the inside or outside of the U formed by said beam, this rear portion of the beam and/or said metal insert comprising a series of notches.
A washing machine comprising: a drum arranged to contain a laundry and to rotate; a motor rotating the drum; a rotation speed detector detecting a rotation speed of the motor; and a controller controlling the motor according to the rotation speed detected by the rotation speed detector, the controller detecting an amount of the laundry, wherein the controller is operable to detect a first acceleration (α1) of the drum while allowing the motor to generate a predetermined accelerating torque to raise the rotation speed of the drum from a first predetermined rotation speed to a second predetermined rotation speed, detect a second acceleration of the drum while allowing the motor to generate a predetermined decelerating torque to decrease the rotation speed of the drum from a third predetermined rotation speed to a fourth predetermined rotation speed, and detect the amount of the laundry according to the first angular acceleration (α1) and the second angular acceleration (α2), wherein the controller is operable to detect a local maximum rotation speed and a local minimum rotation speed within a predetermined range of an angular position of the drum while allowing the motor to generate the predetermined accelerating torque to raise the rotation speed of the drum from said first predetermined rotation speed to said second predetermined rotation speed, and drive the motor so as to stop the drum if a difference between the local maximum rotation speed and the local minimum rotation speed exceeds a predetermined value. a drum arranged to contain a laundry and to rotate; a motor rotating the drum; a rotation speed detector detecting a rotation speed of the motor; and a controller controlling the motor according to the rotation speed detected by the rotation speed detector, the controller detecting an amount of the laundry, wherein the controller is operable to detect a first acceleration (α1) of the drum while allowing the motor to generate a predetermined accelerating torque to raise the rotation speed of the drum from a first predetermined rotation speed to a second predetermined rotation speed, detect a second acceleration of the drum while allowing the motor to generate a predetermined decelerating torque to decrease the rotation speed of the drum from a third predetermined rotation speed to a fourth predetermined rotation speed, and detect the amount of the laundry according to the first angular acceleration (α1) and the second angular acceleration (α2), wherein the controller is operable to detect a local maximum rotation speed and a local minimum rotation speed within a predetermined range of an angular position of the drum while allowing the motor to generate the predetermined accelerating torque to raise the rotation speed of the drum from said first predetermined rotation speed to said second predetermined rotation speed, and drive the motor so as to stop the drum if a difference between the local maximum rotation speed and the local minimum rotation speed exceeds a predetermined value.
A cosmetic composition comprising: 0.001 to 10 wt % of an O-substituted ascorbic acid represented by the formula: wherein R 1 is C1-20 alkyl or C3-20 cycloalkyl and R 2 is H; and 0.01 to 10 wt % gluconolactone, wherein the composition comprises an aqueous phase present at up to 95 wt %, or up to 90 wt % of the composition. 0.001 to 10 wt % of an O-substituted ascorbic acid represented by the formula: wherein R 1 is C1-20 alkyl or C3-20 cycloalkyl and R 2 is H; and 0.01 to 10 wt % gluconolactone,
A method performed by an electronic device to map a plurality of feature maps (602, 606, 610, 614, 618) of a neural network onto a hardware memory hierarchy (406, 408, 410, 412), the method comprising: mapping a first feature map of the plurality of feature maps (602, 606, 610, 614, 618) to a memory in the memory hierarchy (406, 408, 410, 412) having available memory space and providing quickest access to the first feature map; generating a second feature map of the plurality of feature maps (602, 606, 610, 614, 618) from the first feature map by feeding the first feature map through a layer of the neural network; selecting a level of a memory in the memory hierarchy (406, 408, 410, 412) having enough unallocated memory space to store the second feature map and providing quickest access to the second feature map; mapping the second feature map to the memory of the selected level; and when the first feature map expires, removing the first feature map of the plurality of feature maps (602, 606, 610, 614, 618) from the memory used to store the first feature map, and unallocating the memory used to store the first feature map. mapping a first feature map of the plurality of feature maps (602, 606, 610, 614, 618) to a memory in the memory hierarchy (406, 408, 410, 412) having available memory space and providing quickest access to the first feature map; generating a second feature map of the plurality of feature maps (602, 606, 610, 614, 618) from the first feature map by feeding the first feature map through a layer of the neural network; selecting a level of a memory in the memory hierarchy (406, 408, 410, 412) having enough unallocated memory space to store the second feature map and providing quickest access to the second feature map; mapping the second feature map to the memory of the selected level; and when the first feature map expires, removing the first feature map of the plurality of feature maps (602, 606, 610, 614, 618) from the memory used to store the first feature map, and unallocating the memory used to store the first feature map.
Biodegradable, semi-crystalline, phase separated, thermoplastic multi-block copolymer, the copolymer being characterised in that: a) it comprises at least one hydrolysable pre-polymer segment and at least one hydrolysable polyester pre-polymer segment, said pre-polymer segment containing a water-soluble polymer and being completely amorphous at physiological conditions and having a T g of 37 °C or less under physiological conditions and said pre-polymer segment being based on a crystalline polymer and having a T m of 110-250 °C under physiological conditions, b) said multi-block copolymer having a T g of 37 °C or less and a T m of 110-250 °C under physiological conditions, wherein the T m of the multi-block copolymer is lower than the T m of the pre-polymer segment; c) the segments are linked by a multifunctional chain-extender; d) the segments are randomly distributed over the polymer chain; e) at least part of the pre-polymer segment is derived from a water-soluble polymer, wherein the pre-polymer segment is more hydrophilic than the pre-polymer segment, and wherein the content of pre-polymer is 10-90 wt.% based on total weight of the multi-block copolymer. a) it comprises at least one hydrolysable pre-polymer segment and at least one hydrolysable polyester pre-polymer segment, said pre-polymer segment containing a water-soluble polymer and being completely amorphous at physiological conditions and having a T g of 37 °C or less under physiological conditions and said pre-polymer segment being based on a crystalline polymer and having a T m of 110-250 °C under physiological conditions, b) said multi-block copolymer having a T g of 37 °C or less and a T m of 110-250 °C under physiological conditions, wherein the T m of the multi-block copolymer is lower than the T m of the pre-polymer segment; c) the segments are linked by a multifunctional chain-extender; d) the segments are randomly distributed over the polymer chain; e) at least part of the pre-polymer segment is derived from a water-soluble polymer,
A beetroot composition comprising betalains, having the following feature: ratios of HPLC peak areas as detected with a DAD detector of: HPLC Ratio 1 = ∑ area 504 nm ∑ area 504 nm + ∑ area 534 nm ≥ 0.25 and HPLC Ratio 2 = area 526 nm area 526 nm + ∑ area 534 nm ≥ 0.25 wherein Σ area 504 nm is the sum of peak areas detected at 504 nm, wherein the peaks show a λ max in the UV-Vis spectrum between 502 nm and 510 nm; ∑ area 534nm is the sum of peak areas detected at 534 nm, wherein the peaks show a λ max in the UV-Vis spectrum between 532 nm and 540 nm and area 526nm is the peak area detected at 526 nm, wherein the peak shows a λ max in the UV-Vis spectrum between 522 nm and 530 nm. ratios of HPLC peak areas as detected with a DAD detector of: HPLC Ratio 1 = ∑ area 504 nm ∑ area 504 nm + ∑ area 534 nm ≥ 0.25 and HPLC Ratio 2 = area 526 nm area 526 nm + ∑ area 534 nm ≥ 0.25 wherein Σ area 504 nm is the sum of peak areas detected at 504 nm, wherein the peaks show a λ max in the UV-Vis spectrum between 502 nm and 510 nm; ∑ area 534nm is the sum of peak areas detected at 534 nm, wherein the peaks show a λ max in the UV-Vis spectrum between 532 nm and 540 nm and area 526nm is the peak area detected at 526 nm, wherein the peak shows a λ max in the UV-Vis spectrum between 522 nm and 530 nm.