mhurhangee/patent-ind-claim-en huggingface dataset:
A tarp system covering a truck bed , said tarp system comprising: a first pivot arm assembly pivotally coupled to the truck bed ; a second pivot arm assembly pivotally coupled to the truck bed and spaced from said first pivot arm assembly ; a generally hollow tarp spool extending along a longitudinal axis between opposite first and second ends, said tarp spool rotatably coupled between said first and second pivot arm assemblies and rotatably supporting a tarp cover ; characterized in that it further comprises a drive assembly housed within said tarp spool adjacent one of said first and second ends, said drive assembly operatively coupled between one of said first and second pivot arm assemblies and said tarp spool for selectively rotating said tarp spool and actuating said tarp system between an open position uncovering the truck bed and a closed position covering the truck bed , wherein the drive assembly includes a motor . a first pivot arm assembly pivotally coupled to the truck bed ; a second pivot arm assembly pivotally coupled to the truck bed and spaced from said first pivot arm assembly ; a generally hollow tarp spool extending along a longitudinal axis between opposite first and second ends, said tarp spool rotatably coupled between said first and second pivot arm assemblies and rotatably supporting a tarp cover ; characterized in that it further comprises a drive assembly housed within said tarp spool adjacent one of said first and second ends, said drive assembly operatively coupled between one of said first and second pivot arm assemblies and said tarp spool for selectively rotating said tarp spool and actuating said tarp system between an open position uncovering the truck bed and a closed position covering the truck bed , wherein the drive assembly includes a motor .
A method for operating a logical endpoint of a stable virtual access point, wherein the logical endpoint is comprised in a virtual access point, wherein the virtual access point is defined as the stable virtual access point, wherein the logical endpoint defines interfaces with the other network nodes and the virtual access point and comprises an interface with a macro access point, wherein the logical endpoint is a defined interface whose connectivity to a cellular network does not change with respect to cellular network nodes or network elements over a substantial period of time, wherein a user equipment, UE, is in communication with the macro access point and the stable virtual access point, wherein the virtual access point comprises a plurality of transmission points, TPs, including a master transmission points, MTP, and wherein the TPs provide a coordinated data transmission to the UE, the method comprising: storing, at the logical endpoint, a connection status of the UE; receiving , at the logical endpoint, information regarding the connection status of the UE from the macro access point; determining , at the logical endpoint, a change in the connection status of the UE; and updating, at the logical endpoint, the connection status of the UE with respect to the change, wherein receiving the information regarding the connection status of the UE comprises receiving the information regarding a radio link failure, and wherein determining the change in the connection status of the UE comprises reconfiguring the stable virtual access point, and wherein reconfiguring the stable virtual access point comprises reconfiguring the stable virtual access point with a new MTP. storing, at the logical endpoint, a connection status of the UE; receiving , at the logical endpoint, information regarding the connection status of the UE from the macro access point; determining , at the logical endpoint, a change in the connection status of the UE; and updating, at the logical endpoint, the connection status of the UE with respect to the change, wherein receiving the information regarding the connection status of the UE comprises receiving the information regarding a radio link failure, and wherein determining the change in the connection status of the UE comprises reconfiguring the stable virtual access point, and wherein reconfiguring the stable virtual access point comprises reconfiguring the stable virtual access point with a new MTP.
Method for replacing a defective control unit in a bus-networked conveying device, wherein the conveying device comprises a first control unit with a first bus address and at least one second control unit with a second bus address, wherein the first control unit controls a first conveyor segment, and the second control unit controls a second conveyor segment, and the first control unit and the second control unit are linked by means of bus communication, characterized in that the following steps are carried out: i) the defect in the second control unit is detected by the first control unit; ii) the first control unit is switched into a configuration mode when the first control unit detects the defect in the second control unit; iii) a third control unit is integrated into the bus communication after the first control unit has been put into the configuration mode; iv) a configuration is transferred from the first control unit to the third control unit or from the third control unit to the first control unit; v) the configuration that has been transferred from the first control unit is stored in the third control unit, or the configuration that has been transferred from the third control unit is stored in the first control unit. i) the defect in the second control unit is detected by the first control unit; ii) the first control unit is switched into a configuration mode when the first control unit detects the defect in the second control unit; iii) a third control unit is integrated into the bus communication after the first control unit has been put into the configuration mode; iv) a configuration is transferred from the first control unit to the third control unit or from the third control unit to the first control unit; v) the configuration that has been transferred from the first control unit is stored in the third control unit, or the configuration that has been transferred from the third control unit is stored in the first control unit.
A compound shown in Formula I or a salt thereof for use in a method of treatment of Alzheimer's disease, vascular dementia, and other dementia diseases with impaired memory: wherein in Formula I, R 1 is selected from R 3 being a C 1 -C 6 alkoxy group; and R 2 is selected from R 4 being a 2-, 3-, or 4-position monosubstituted halogen, a 2-, 3-, or 4-position monosubstituted C1-C6 alkyl or alkoxy group, an ester group, a 4-position substituted a 4-position substituted -CN, a 4-position substituted -NO 2 or disubstituted alkoxy group; representing a connecting end. wherein in Formula I, R 1 is selected from R 3 being a C 1 -C 6 alkoxy group; and R 2 is selected from R 4 being a 2-, 3-, or 4-position monosubstituted halogen, a 2-, 3-, or 4-position monosubstituted C1-C6 alkyl or alkoxy group, an ester group, a 4-position substituted a 4-position substituted -CN, a 4-position substituted -NO 2 or disubstituted alkoxy group; representing a connecting end.
Assembly of two elements and a device for the connection and linear separation of said two elements, i.e. a first element and a second element , linearly connected to one another by connecting means, and having to be securely separated, the separation taking place by warming-up of the connecting means, said warming-up being triggered remotely, the connection and separation device comprising: - the connecting means between the first and second elements ; - a pyrogenic material , heat generator, placed close to the connecting means; and - means for remotely pyrotechnically triggering the pyrogenic material , characterised in that : - the pyrogenic material is placed in a tube , same placed between the first element and the second element ; and - the connecting means are composed of an adhesive placed between the tube and each of the first and second elements . - the connecting means between the first and second elements ; - a pyrogenic material , heat generator, placed close to the connecting means; and - means for remotely pyrotechnically triggering the pyrogenic material , characterised in that : - the pyrogenic material is placed in a tube , same placed between the first element and the second element ; and - the connecting means are composed of an adhesive placed between the tube and each of the first and second elements .
A robotic working tool system comprising a robotic working tool comprising a work tool , an attachment receiver arranged to receive an attachment and a controller , the controller being configured to receive information regarding an attachment being received, and in response thereto change the operation of the robotic working tool to operate in an attachment operating mode, and to determine an aspect of the attachment and adapt the operation in the attachment operating mode to accommodate for the determined aspect, the robotic working tool system being characterized in that the aspect is an indication of the weight of the attachment and wherein the robotic working tool comprises an outer shell (140-2) and an inner hull (140-1), wherein the attachment receiver is mechanically connected to the outer shell (140-2), and wherein the controller is configured to determine the weight of the attachment based on a relative movement between the outer shell (140-2) and the inner hull (140-1).
A tool for forming a piston having a plurality of circumferential seals (14;16) for use in a cartridge for dispensing multi-part fluids, the tool comprising a plurality of segments together defining a piston cavity corresponding to an outer periphery of the piston , the segments including: a central segment defining a generally cylindrical main body cavity for forming a circumferential portion of the piston , wherein a longitudinal axis of the central segment defines a tool draw axis; a rearward segment for forming at least a rear end of the piston , the rearward segment being configured to engage the central segment to at least partially form a rearward sealing edge of a rearward seal on the piston ; a forward segment for forming at least a forward end of the piston ; at least a pair of intermediate segments (58;60) disposed intermediate the forward segment and the central segment , a first intermediate segment being adjacent the forward segment and configured so that the forward segment and the first intermediate segment together form a deflection member , and a second intermediate segment being adjacent the central segment and configured so that the second intermediate segment and the rearward segment together form a first sealing edge on a periphery of a forward circumferential piston seal , wherein the forward , rearward and intermediate segments (58;60) are axially movable along the longitudinal axis with respect to each other, and wherein a portion of the first intermediate segment is configured to extend behind the deflection member in the tool draw axis to form an undercut. a central segment defining a generally cylindrical main body cavity for forming a circumferential portion of the piston , wherein a longitudinal axis of the central segment defines a tool draw axis; a rearward segment for forming at least a rear end of the piston , the rearward segment being configured to engage the central segment to at least partially form a rearward sealing edge of a rearward seal on the piston ; a forward segment for forming at least a forward end of the piston ; at least a pair of intermediate segments (58;60) disposed intermediate the forward segment and the central segment , a first intermediate segment being adjacent the forward segment and configured so that the forward segment and the first intermediate segment together form a deflection member , and a second intermediate segment being adjacent the central segment and configured so that the second intermediate segment and the rearward segment together form a first sealing edge on a periphery of a forward circumferential piston seal , wherein the forward , rearward and intermediate segments (58;60) are axially movable along the longitudinal axis with respect to each other, and wherein a portion of the first intermediate segment is configured to extend behind the deflection member in the tool draw axis to form an undercut.
A method for scheduling a service in a wireless telecommunication network in a single cell point-to-multipoint transmission for multiple user equipment devices within a cell of the network, the method comprising: providing scheduling information for the service to at least one of the respective ones of the user equipment devices as part of or together with a radio network temporary identifier transmitted over a Physical Downlink Control Channel, of the network, the scheduling information comprising a Physical Resource Block allocation on a Physical Downlink Shared Channel of the network for an initial scheduling instance of the service and multiple predefined subsequent scheduling instances of the service occurring at predefined periodic intervals, to allow the user equipment device to monitor the Physical Downlink Control Channel for transmission according to the predefined periodic intervals; wherein the predefined periodic intervals are communicated to the user equipment device in the initial scheduling instance transmitted to the user equipment as part of or together with the radio network temporary identifier communicated over the Physical Downlink Control Channel of the network, and wherein the Physical Resource Block allocation for the initial scheduling instance is used for the subsequent scheduling instances. providing scheduling information for the service to at least one of the respective ones of the user equipment devices as part of or together with a radio network temporary identifier transmitted over a Physical Downlink Control Channel, of the network, the scheduling information comprising a Physical Resource Block allocation on a Physical Downlink Shared Channel of the network for an initial scheduling instance of the service and multiple predefined subsequent scheduling instances of the service occurring at predefined periodic intervals, to allow the user equipment device to monitor the Physical Downlink Control Channel for transmission according to the predefined periodic intervals; wherein the predefined periodic intervals are communicated to the user equipment device in the initial scheduling instance transmitted to the user equipment as part of or together with the radio network temporary identifier communicated over the Physical Downlink Control Channel of the network, and wherein the Physical Resource Block allocation for the initial scheduling instance is used for the subsequent scheduling instances.
Process for manufacturing an aromatic polyimide, characterized in that it comprises the following steps: (a) preparing one or more salts by reacting one or more aromatic tetracarboxylic acids in solid form and one or more diamines, optionally in the presence of one or more chain-limiting agents, in the presence of one or more binders, comprising one or more organic liquids, in an amount of from 1% to 25% by weight relative to the total weight of the aromatic tetracarboxylic acid(s), the diamine(s) and the optional chain-limiting agent(s); and then (b) polymerization of the salt(s) obtained in step (a) ; characterized in that the binder(s) are present in an amount ranging from 5% to 20% by weight, preferably from 10% to 20% by weight, relative to the total weight of the aromatic tetracarboxylic acid(s), the diamine(s) and the optional chain-limiting agent(s). (a) preparing one or more salts by reacting one or more aromatic tetracarboxylic acids in solid form and one or more diamines, optionally in the presence of one or more chain-limiting agents, in the presence of one or more binders, comprising one or more organic liquids, in an amount of from 1% to 25% by weight relative to the total weight of the aromatic tetracarboxylic acid(s), the diamine(s) and the optional chain-limiting agent(s); and then (b) polymerization of the salt(s) obtained in step (a) ;
An integrated circuit comprising: a printed circuit board, PCB, ; a signal integrity, SI, channel interconnected on the PCB , the SI channel comprising parallel signal traces (dq3, dq4, dq5, dq6, dq7) arranged in an asymmetric spacing (b1, b2, b3, b4); a system on chip, SoC die interconnected on the SI channel , the SOC die comprising a parallel memory interface coupled to the parallel signal traces (dq3, dq4, dq5, dq6, dq7) through package interconnects; and a memory device package on the SoC die and coupled to the parallel memory interface of the SoC die through the parallel signal traces (dq3, dq4, dq5, dq6, dq7) arranged in the asymmetric spacing (b1, b2, b3, b4), in which a variable spacing (b1, b2, b3, b4) is provided between the parallel signal traces for a majority portion of the parallel signal traces (dq3, dq4, dq5, dq6, dq7) of a longest leg of an internal signal integrity channel. a printed circuit board, PCB, ; a signal integrity, SI, channel interconnected on the PCB , the SI channel comprising parallel signal traces (dq3, dq4, dq5, dq6, dq7) arranged in an asymmetric spacing (b1, b2, b3, b4); a system on chip, SoC die interconnected on the SI channel , the SOC die comprising a parallel memory interface coupled to the parallel signal traces (dq3, dq4, dq5, dq6, dq7) through package interconnects; and a memory device package on the SoC die and coupled to the parallel memory interface of the SoC die through the parallel signal traces (dq3, dq4, dq5, dq6, dq7) arranged in the asymmetric spacing (b1, b2, b3, b4), in which a variable spacing (b1, b2, b3, b4) is provided between the parallel signal traces for a majority portion of the parallel signal traces (dq3, dq4, dq5, dq6, dq7) of a longest leg of an internal signal integrity channel.
A unitary one-piece hub for a gas turbine engine comprising: first and second rings ; and a midsection arranged between the first and second rings , the midsection including a plurality of windows configured to receive a plurality of cross members , and the windows each include a lip configured to surround the cross members ; characterised in that : the second ring includes a flange for connecting to parts of the engine and a first stiffening element on a radially inner side of the second ring . first and second rings ; and a midsection arranged between the first and second rings , the midsection including a plurality of windows configured to receive a plurality of cross members , and the windows each include a lip configured to surround the cross members ; characterised in that : the second ring includes a flange for connecting to parts of the engine and a first stiffening element on a radially inner side of the second ring .
An implantable staple cartridge for use with a surgical stapler , said staple cartridge comprising: a cartridge body ; a plurality of staples positioned within the cartridge body, wherein each said staple is movable between an unfired position and a fired position, and wherein each said staple is deformable between an unfired configuration and a fired configuration when each said staple is moved between a said unfired position and a said fired position, said implantable staple cartridge being characterized in that said cartridge body comprises an inner layer of a compressible hemostat material in which the unfired staples are supported and an outer layer which is a biodegradable film that coats or wraps the inner layer. a cartridge body ; a plurality of staples positioned within the cartridge body, wherein each said staple is movable between an unfired position and a fired position, and wherein each said staple is deformable between an unfired configuration and a fired configuration when each said staple is moved between a said unfired position and a said fired position, said implantable staple cartridge being characterized in that said cartridge body comprises an inner layer of a compressible hemostat material in which the unfired staples are supported and an outer layer which is a biodegradable film that coats or wraps the inner layer.
Display device (DA) for a vehicle (V) providing functionalities and comprising a passenger compartment (H) able to accommodate at least one passenger, said display device (DA) comprising i) a screen (EA) of the touch type, intended to be installed in said passenger compartment (H) in an area accessible to said passenger and configured to display pages of thumbnails (Pk) representative of said functionalities and of commands for the latter, and ii) at least one computer (CA) configured to trigger access to the functionality or command associated with a touched thumbnail, said screen (EA) being subdivided into at least two neighbouring display areas (Zj) and ii) said computer (CA) being configured to control the display in said display zones (Zj) of different thumbnail pages (Pk) chosen by at least one passenger by dedicated actions respectively on these display zones (Zj), characterised in that in the event of activation of a functionality for assisting the driving of said vehicle (V) and display of a thumbnail page associated with this activated functionality on one of said display zones (Zj) said computer (CA) is configured to authorize a replacement of this displayed thumbnail page(s) by another thumbnail page(s) only when this replacement is required by an action of a passenger recognized as a driver of said vehicle (V).
A computer-implemented method at a computing device , the method comprising: obtaining sensor data for a vehicle providing vibration frequency and magnitude of a displacement of a chassis of the vehicle; calculating an energy for each of a low frequency passband and a high frequency passband of a bandpass filter pair; finding an energy ratio based on the energy for the low frequency passband and the energy for the high frequency passband, wherein the energy ratio comprises: eRatio = E L E L + E H where eRatio is the energy ratio; E L is the energy for the low frequency passband; and E H is the energy for the high frequency passband; applying weighting constants to each of the energy for the low frequency passband, the energy for the high frequency passband and the energy ratio to calculate a decision variable; and determining that a loading status of the vehicle is unloaded if the decision variable is below a threshold and determining that the loading status of the vehicle is loaded if the decision variable is above the threshold. obtaining sensor data for a vehicle providing vibration frequency and magnitude of a displacement of a chassis of the vehicle; calculating an energy for each of a low frequency passband and a high frequency passband of a bandpass filter pair; finding an energy ratio based on the energy for the low frequency passband and the energy for the high frequency passband, wherein the energy ratio comprises: eRatio = E L E L + E H where eRatio is the energy ratio; E L is the energy for the low frequency passband; and E H is the energy for the high frequency passband; applying weighting constants to each of the energy for the low frequency passband, the energy for the high frequency passband and the energy ratio to calculate a decision variable; and determining that a loading status of the vehicle is unloaded if the decision variable is below a threshold and determining that the loading status of the vehicle is loaded if the decision variable is above the threshold.