mhurhangee/ep-ind-claims huggingface dataset:
A primary electrochemical cell comprising a housing; a positive and a negative terminal; an anode comprising at least one of a lithium metal and lithium alloy as anode active material; a cathode comprising iron disulfide (FeS 2) as cathode active material and said cathode further comprising conductive carbon; the cell further comprising a separator sheet between said anode and cathode; wherein the cell is an AAA cylindrical size cell, characterized in that; the cell is balanced so that the ratio determined by the theoretical capacity (mAmp-hrs) of said anode divided by the theoretical capacity of the cathode (mAmp-hrs) is between 1.02 and 1.20; the cathode is coated on each side of a substrate, and the ratio of theoretical capacity of the cathode to interfacial surface area between anode and cathode is between 9 and 17 mAmp-hrs per cm 2 per side of said substrate; and the anode/cathode interfacial area is greater than 100 cm 2. an anode comprising at least one of a lithium metal and lithium alloy as anode active material; a cathode comprising iron disulfide (FeS 2) as cathode active material and said cathode further comprising conductive carbon; the cell further comprising a separator sheet between said anode and cathode; wherein the cell is an AAA cylindrical size cell, characterized in that; the cell is balanced so that the ratio determined by the theoretical capacity (mAmp-hrs) of said anode divided by the theoretical capacity of the cathode (mAmp-hrs) is between 1.02 and 1.20; the cathode is coated on each side of a substrate, and the ratio of theoretical capacity of the cathode to interfacial surface area between anode and cathode is between 9 and 17 mAmp-hrs per cm 2 per side of said substrate; and the anode/cathode interfacial area is greater than 100 cm 2.
A method performed by a Base Station, BS,, the method comprising: determining a Hybrid Automatic Repeat Request-Acknowledgement, HARQ-ACK, codebook size for a User Equipment, UE, based on data to be transmitted in a data transmission to the UE, the HARQ-ACK codebook size indicating a number of HARQ-ACK bits for the UE to encode for transmitting Hybrid Automatic Repeat Request, HARQ, feedback for the data transmission to the BS; transmitting an indication of the HARQ-ACK codebook size in a Downlink Assignment Index, DAI, field of a Downlink, DL, assignment to the UE; and wherein the data transmission to the UE is scheduled on a set of carriers comprised in a group of carriers, and characterised in that the transmitting the indication of the HARQ-ACK codebook size in the DAI field of the DL assignment to the UE comprises transmitting, for the set of carriers, respective Downlink Control Information, DCI, messages, wherein each DCI message comprises the DAI field and wherein the indication of the HARQ-ACK codebook size transmitted in the DAI field of each DCI message indicates a same first value for the set of carriers, wherein the first value indicates an order by which the set of carriers comprised in the group is scheduled relative to a further group of carriers comprising a further set of carriers also scheduled for the data transmission, and wherein the order is an ascending order. determining a Hybrid Automatic Repeat Request-Acknowledgement, HARQ-ACK, codebook size for a User Equipment, UE, based on data to be transmitted in a data transmission to the UE, the HARQ-ACK codebook size indicating a number of HARQ-ACK bits for the UE to encode for transmitting Hybrid Automatic Repeat Request, HARQ, feedback for the data transmission to the BS; transmitting an indication of the HARQ-ACK codebook size in a Downlink Assignment Index, DAI, field of a Downlink, DL, assignment to the UE; and wherein the data transmission to the UE is scheduled on a set of carriers comprised in a group of carriers, and characterised in that the transmitting the indication of the HARQ-ACK codebook size in the DAI field of the DL assignment to the UE comprises transmitting, for the set of carriers, respective Downlink Control Information, DCI, messages, wherein each DCI message comprises the DAI field and wherein the indication of the HARQ-ACK codebook size transmitted in the DAI field of each DCI message indicates a same first value for the set of carriers, wherein the first value indicates an order by which the set of carriers comprised in the group is scheduled relative to a further group of carriers comprising a further set of carriers also scheduled for the data transmission, and wherein the order is an ascending order.
One or more non-transitory computer-readable media storing instructions which, when processed by one or more processors, cause: retrieving image data for an image of a scene that includes an object of interest and a reference object having a known actual size in the scene in at least one dimension; causing the image of the scene that includes the object of interest and the reference object having a known actual size in the scene in at least one dimension to be displayed in an image editor executing on one or more computing devices; in response to user input, overlaying a measurement marker on the object of interest in the image displayed in the image editor; determining a display size in the image editor of the at least one dimension of the reference object; determining a display size in the image editor of at least one dimension of the measurement marker; determining an actual size of the at least one dimension of the measurement marker in the scene based upon the display size in the image editor of at least one dimension of the measurement marker, the display size in the image editor of the at least one dimension of the reference object and the known actual size in the at least one dimension of the reference object in the scene; and displaying, in the image editor, the determined actual size of the at least one dimension of the measurement marker in the scene, characterized in that the reference object is a barcode and the known actual size in the at least one dimension of the scene of the reference object is encoded in the barcode. retrieving image data for an image of a scene that includes an object of interest and a reference object having a known actual size in the scene in at least one dimension; causing the image of the scene that includes the object of interest and the reference object having a known actual size in the scene in at least one dimension to be displayed in an image editor executing on one or more computing devices; in response to user input, overlaying a measurement marker on the object of interest in the image displayed in the image editor; determining a display size in the image editor of the at least one dimension of the reference object; determining a display size in the image editor of at least one dimension of the measurement marker; determining an actual size of the at least one dimension of the measurement marker in the scene based upon the display size in the image editor of at least one dimension of the measurement marker, the display size in the image editor of the at least one dimension of the reference object and the known actual size in the at least one dimension of the reference object in the scene; and displaying, in the image editor, the determined actual size of the at least one dimension of the measurement marker in the scene, characterized in that the reference object is a barcode and the known actual size in the at least one dimension of the scene of the reference object is encoded in the barcode.
A method of initiating channel state information, CSI, feedback in a wireless device configured by higher layers with M CSI Report Settings containing parameters related to CSI reporting and N Resource Settings containing parameters defining S CSI reference symbol, CSI-RS, Resource Sets for use for channel measurement and their properties, the method comprising receiving a dynamic indication of a CSI Report Setting of the M CSI Report Settings and of CSI-RS resources within the S CSI-RS Resource Sets; determining a CSI-RS Resource Set of the S CSI-RS Resource Sets, based on the received dynamic indication of the CSI Report Setting and on a one-to-one correspondence between one CSI Report Setting of the M CSI Reporting Settings and one CSI-RS Resource Set of the S CSI-RS Resource Sets; and initiating the CSI feedback. receiving a dynamic indication of a CSI Report Setting of the M CSI Report Settings and of CSI-RS resources within the S CSI-RS Resource Sets; determining a CSI-RS Resource Set of the S CSI-RS Resource Sets, based on the received dynamic indication of the CSI Report Setting and on a one-to-one correspondence between one CSI Report Setting of the M CSI Reporting Settings and one CSI-RS Resource Set of the S CSI-RS Resource Sets; and initiating the CSI feedback.
Filter element of a filtering device for filtering a fluid, in particular oil or fuel, in particular of an internal combustion engine in particular of a motor vehicle which can be disposed in a filter housing of the filtering device, with an annularly closed filter medium which is connected on at least one front side with an end body (36, 38) and with an annular anti-drain membrane which is disposed on the side facing away from the filter medium of the at least one end body, for opening and closing at least one fluid opening of the filter housing, wherein the anti-drain membrane abuts in a maximum opening state with a backside facing towards the at least one end body, in particular flat, on a surface facing towards this backside of a locating section of the at least one end body and the surface facing towards the backside of the anti-drain membrane of the locating section features at least one relief-like adhesion disturbance area for avoiding an adhesion of the anti-drain membrane at the locating section of the at least one end body, characterized in that the at least one adhesion disturbance area features at least one channel-like recess.
A device, comprising: a stack of memory dies; a command die coupled to communicate with the stack of memory dies; a first buffer die coupled between the command die and a downstream memory die in the stack of memory dies, wherein the first buffer die is coupled to the command die through a first bypass through silicon via, wherein the bypass through silicon via does not include connections to communicate with one or more dies between the command die and the first buffer die, wherein the first buffer die is configured to communicate with the command die, and repeat a signal between the command die and a downstream memory die in the stack of memory dies, wherein the first buffer die is configured to communicate with a memory die above the first buffer die in the stack of memory dies and is configured to communicate with a memory die below the first buffer die in the stack of memory dies; and a second buffer die coupled to another downstream memory die in the stack of memory dies, wherein the second buffer die is configured to repeat a memory signal, wherein the command die is configured to communicate in parallel with the first buffer die and the second buffer die, wherein the second buffer die is coupled to the command die through a second bypass through silicon via. a stack of memory dies; a command die coupled to communicate with the stack of memory dies; a first buffer die coupled between the command die and a downstream memory die in the stack of memory dies, wherein the first buffer die is coupled to the command die through a first bypass through silicon via, wherein the bypass through silicon via does not include connections to communicate with one or more dies between the command die and the first buffer die, wherein the first buffer die is configured to communicate with the command die, and repeat a signal between the command die and a downstream memory die in the stack of memory dies, wherein the first buffer die is configured to communicate with a memory die above the first buffer die in the stack of memory dies and is configured to communicate with a memory die below the first buffer die in the stack of memory dies; and a second buffer die coupled to another downstream memory die in the stack of memory dies, wherein the second buffer die is configured to repeat a memory signal, wherein the command die is configured to communicate in parallel with the first buffer die and the second buffer die, wherein the second buffer die is coupled to the command die through a second bypass through silicon via.
Group of at least two assemblies each comprising a support, at least one rail and a plurality of devices for fixing said rail to said support, said support comprising a plurality of concrete blocks, each block being integral and comprising at least two grooves, said fixing devices each comprising at least one head arranged in a groove of one of said blocks, said assemblies each comprising a plain track section, or a turnout, the plain track sections or turnouts of the first and second assemblies having different geometries, said group being characterized in that at least one block of said first assembly is identical to at least one block of said second assembly, or one of the two assemblies comprises at least two identical blocks.
Arrangement for blowing off compressor air in an engine, wherein the arrangement has a blow-off duct for the blowing-off of compressor air, characterized in that the blow-off duct is not to be closed off by means of a closure element, but rather the duct geometry of the blow-off duct is settable downstream of an opening, via which the compressor air to be released passes into the blow-off duct, and thus, in the blow-off duct, a cross-sectional area defined by external delimiting surfaces is variable at least in a sub-region.
A method for wireless communications by an apparatus, comprising: communicating with one or more members of a group, that includes the apparatus, according to a first data communication window, DCW, timeline having a first offset relative to a first clock associated with a first network cluster; detecting a beacon associated with a second network cluster, wherein the beacon comprises timing information of a second clock associated with the second network cluster; determining whether to initiate a move of the group to the second network cluster; generating a frame to initiate the move of the group to the second network cluster, if the determination is to initiate the move, the frame comprising a first indication of the timing information of the second clock; outputting the frame for transmission; determining, based on the timing information of the second clock, a second DCW timeline for occurrence of DCWs for communicating data by members of the group after the move; and communicating with one or more members of the group according to the second DCW timeline. communicating with one or more members of a group, that includes the apparatus, according to a first data communication window, DCW, timeline having a first offset relative to a first clock associated with a first network cluster; detecting a beacon associated with a second network cluster, wherein the beacon comprises timing information of a second clock associated with the second network cluster; determining whether to initiate a move of the group to the second network cluster; generating a frame to initiate the move of the group to the second network cluster, if the determination is to initiate the move, the frame comprising a first indication of the timing information of the second clock; outputting the frame for transmission; determining, based on the timing information of the second clock, a second DCW timeline for occurrence of DCWs for communicating data by members of the group after the move; and communicating with one or more members of the group according to the second DCW timeline.
A synchronizing system for hydraulic four wheel steering, the synchronizing system comprising: a double acting front steering cylinder mounted between a stationary member and a front wheel support assembly; a double acting rear steering cylinder mounted between a stationary member and a rear wheel support assembly; and a synchronizing valve assembly connected by hydraulic lines between the front and the rear steering cylinders (32, 34), characterized by a pair of directional relief valves (38, 40) that can open to synchronize the positions of the front and the rear steering cylinders (32, 34), wherein the pair of directional relief valves (38, 40) include a first directional relief valve that opens in response to insufficient hydraulic fluid pressure between the front and rear steering cylinders (32, 34) to dump hydraulic fluid into the hydraulic lines between the front and rear steering cylinders (32, 34) to synchronize both of the front and the rear steering cylinders (32, 34) in a fully extended position, wherein the pair of directional relief valves (38, 40) include a second directional relief valve that opens in response to excess hydraulic fluid between the front and rear steering cylinders (32, 34) to dump hydraulic fluid into a reservoir to synchronize both of the front and the rear steering cylinders (32, 34) in a fully retracted position. a double acting front steering cylinder mounted between a stationary member and a front wheel support assembly; a double acting rear steering cylinder mounted between a stationary member and a rear wheel support assembly; and a synchronizing valve assembly connected by hydraulic lines between the front and the rear steering cylinders (32, 34), characterized by a pair of directional relief valves (38, 40) that can open to synchronize the positions of the front and the rear steering cylinders (32, 34), wherein the pair of directional relief valves (38, 40) include a first directional relief valve that opens in response to insufficient hydraulic fluid pressure between the front and rear steering cylinders (32, 34) to dump hydraulic fluid into the hydraulic lines between the front and rear steering cylinders (32, 34) to synchronize both of the front and the rear steering cylinders (32, 34) in a fully extended position, wherein the pair of directional relief valves (38, 40) include a second directional relief valve that opens in response to excess hydraulic fluid between the front and rear steering cylinders (32, 34) to dump hydraulic fluid into a reservoir to synchronize both of the front and the rear steering cylinders (32, 34) in a fully retracted position.
A controller configured to be coupled to a tablet computer, the controller comprising: a docking portion configured to receive the tablet computer; a first handle (106, 108) configured to be disposed at one side of the controller and coupled to the docking portion; a user input element (110, 114, 118) disposed on the first handle (106, 108) and configured to send a signal when operated; an actuator (112, 116, 120, 122) coupled to the first handle (106, the actuator (112, 116, 120, 122) configured to receive a control signal and output a haptic effect to the first handle (106, 108) in response to the control signal; and characterized by the actuator being in a location where a first hand of a user is generally located and by further comprising a first vibration isolation barrier (144, 146), the first vibration isolation barrier (144, 146) comprising a vibration dampening material and/or a spring or a plurality of springs, the first vibration isolation barrier (144, 146) disposed between the actuator (112, 116, 120, 122) and the docking portion. a docking portion configured to receive the tablet computer; a first handle (106, 108) configured to be disposed at one side of the controller and coupled to the docking portion; a user input element (110, 114, 118) disposed on the first handle (106, 108) and configured to send a signal when operated; an actuator (112, 116, 120, 122) coupled to the first handle (106, the actuator (112, 116, 120, 122) configured to receive a control signal and output a haptic effect to the first handle (106, 108) in response to the control signal; and characterized by the actuator being in a location where a first hand of a user is generally located and by further comprising a first vibration isolation barrier (144, 146), the first vibration isolation barrier (144, 146) comprising a vibration dampening material and/or a spring or a plurality of springs, the first vibration isolation barrier (144, 146) disposed between the actuator (112, 116, 120, 122) and the docking portion.
A cooling tube (3', 3") having a longitudinal axis, an inner surface and an outer surface for a mould core of an injection moulding tool for the injection moulding of preforms of plastic, wherein a fluid passage which extends through the cooling tube is defined by the inner surface, wherein the cooling tube has a support element at the outer surface, the support element having a support surface which with the longitudinal axis includes an angle which is greater than 0°, wherein the support element has at least one recess extending in the axial direction, characterised in that adjoining the support element in the longitudinal direction is a first centring element having a first centring surface which includes an angle of 0° with the longitudinal axis, wherein there is provided a second centring element having a second centring surface which adjoins the support surface in the longitudinal direction in such a way that the support surface is disposed between first and second centring surfaces, wherein the first centring element, the second centring element and the support element are connected together.
Excavator with a moveable boom, comprising a main electrical drive system with an electrical power storage unit and an electrical drive configured to actuate movement of the boom to raise and/or lower at least part of the boom, optionally with a pivoting movement, a main hydraulic system with at least one hydraulic actuator, optionally a cylinder, for moving the part of the boom and a hydraulic pump for actuating the hydraulic actuator, wherein the hydraulic pump is powered by the main electrical drive system, and further comprising a separate fluid-operated auxiliary actuation system for storing potential energy of at least part of the boom during lowering thereof and for using the stored energy to support raising of at least part of the boom, wherein the auxiliary actuation system is configured to store the energy and to support raising the part of the boom completely autonomous without any interaction with the main electrical drive system and comprises at least one auxiliary actuator, optionally an auxiliary cylinder, that is coupled to the boom and at least one accumulator, wherein the auxiliary actuator and the accumulator are coupled such that lowering of part of the boom pressurizes the accumulator and such that raising of part of the boom may be supported by energy stored in the accumulator.