mhurhangee/patent-ind-claim-en huggingface dataset:
Testing device for testing a distance sensor operating with electromagnetic waves, having a receiving element for receiving an electromagnetic free-space wave as a receive signal S RX , having a radiating element for radiating a simulated electromagnetic reflection signal S TX , wherein the receive signal S RX or a signal S' RX derived from the receive signal S RX is routed via a time delay circuit with a predeterminable time delay t delay,soll , and is thus time-delayed to a time-delayed signal S delay , wherein the time-delayed signal S delay or a signal S' delay derived from the time-delayed signal S delay is radiated as the simulated reflection signal S TX via the radiating element , characterized in that the time delay circuit has an analog delay path with a predeterminable time delay t delay,soll and a digital delay path with a likewise predeterminable time delay t delay,soll , that the analog delay path implements shorter time delays than the digital delay path , apart from a possible overlap region, that an input switch is used to switch the receive signal S RX or the signal S' RX derived from the receive signal S RX either to the input of the analog delay path or to the input of the digital delay path , and the signal becomes the time-delayed signal S delay after it has passed through the connected delay path. that the time delay circuit has an analog delay path with a predeterminable time delay t delay,soll and a digital delay path with a likewise predeterminable time delay t delay,soll , that the analog delay path implements shorter time delays than the digital delay path , apart from a possible overlap region, that an input switch is used to switch the receive signal S RX or the signal S' RX derived from the receive signal S RX either to the input of the analog delay path or to the input of the digital delay path , and the signal becomes the time-delayed signal S delay after it has passed through the connected delay path.
One or more agents for use in treating cancer-associated muscle and/or fat loss in a subject identified as having a cancer by inhibiting the loss of myosin heavy chain in a myocyte; inhibiting lipolysis in an adipocyte; or inhibiting atrophy in a myocyte, adipocyte, or hepatocyte, wherein the one or more agent is a MEK inhibitor selected from one or more of PD184352 and trametinib (GSK1120212); wherein the subject is identified as having at least one cancer selected from the group consisting of carcinomas, sarcomas, cancers of the skin, pancreas, stomach, colon, thorax, liver, gallbladder, musculoskeletal system, breast, lung, ovary, uterus, endometrium, prostate, mouth, salivary, esophagus, head and neck, and tumors of the gastrointestinal tract; and wherein the subject is pre-selected as having a molecular signature indicative of pre-cachexia or cachexia, by one or more of: detecting an alteration in at least three markers selected from the group consisting of S100A2 or S100A4; S100A8 or S100A9; and S100A7; detecting an alteration in at least four markers selected from the group consisting of S100A2 or S100A4; S100A8 or S100A9; S100A7; and S100A14; or measuring the level of at least five markers selected from the group consisting of S100A2 or S100A4; S100A8 or S100A9; S100A7; S100A14; and S100P, thereby pre-selecting the patient as having said molecular signature. detecting an alteration in at least three markers selected from the group consisting of S100A2 or S100A4; S100A8 or S100A9; and S100A7; detecting an alteration in at least four markers selected from the group consisting of S100A2 or S100A4; S100A8 or S100A9; S100A7; and S100A14; or measuring the level of at least five markers selected from the group consisting of S100A2 or S100A4; S100A8 or S100A9; S100A7; S100A14; and S100P, thereby pre-selecting the patient as having said molecular signature.
Insulated packaging , in particular for packing portable objects, wherein the insulated packaging comprises a base part which has at least four side walls connected to each other via first folding points and a first base section which is closable by folding, wherein this first base section is arranged via a second folding point at the first side wall , and on at least two side walls in each case a further foldable section is arranged, wherein this further foldable section has at least first and second subsection foldable with respect to each other and the first foldable subsections serve as further side wall layers and the second foldable subsections serve as further base layer, characterized in that the second subsections are foldable with respect to the first subsections (172a, 172b 172c, 172d) with folding points and folding points in first subsections between an upper subsection and a lower subsection are provided which folding points facilitate the folding of the subsections to each other.
A shaft assembly (100:200:300), the shaft assembly (100:200:300) comprising: a first shaft portion (110:210), connected to a second shaft portion (120:220) by a flexible coupling (130:230:330), the first shaft portion (110:210) being further connected to the second shaft portion (120:220) by a frangible coupling (140:240), the frangible coupling (140:240) being configured to fail if a bending load across the frangible coupling (140:240) exceeds a predetermined maximum bending load, and the flexible coupling (130:230:330) allowing an angular misalignment between the first and second shaft portions (110:210,120:220) not exceeding a predetermined maximum angular misalignment value, characterised in that the first and second shaft portions are arranged concentrically and the frangible coupling extends radially between the first and second shaft portions . a first shaft portion (110:210), connected to a second shaft portion (120:220) by a flexible coupling (130:230:330), the first shaft portion (110:210) being further connected to the second shaft portion (120:220) by a frangible coupling (140:240), the frangible coupling (140:240) being configured to fail if a bending load across the frangible coupling (140:240) exceeds a predetermined maximum bending load, and the flexible coupling (130:230:330) allowing an angular misalignment between the first and second shaft portions (110:210,120:220) not exceeding a predetermined maximum angular misalignment value, characterised in that the first and second shaft portions are arranged concentrically and the frangible coupling extends radially between the first and second shaft portions .
A method for computing a forwarding path, wherein the method comprises: receiving , by a network device, notification packets separately sent by a plurality of forwarding nodes, wherein each notification packet comprises interface forwarding delay information of the forwarding node that sends the notification packet, device forwarding delay information of the forwarding node that sends the notification packet, and a transmission delay of a link connected to the forwarding node that sends the notification packet; obtaining , by the network device, the interface forwarding delay information and the device forwarding delay information of each of the plurality of forwarding nodes based on the notification packet, and obtaining a transmission delay of a link between the plurality of forwarding nodes based on the notification packet; and computing , by the network device, a forwarding path between a first forwarding node and a second forwarding node based on the interface forwarding delay information and the device forwarding delay information of each forwarding node and the transmission delay of the link between the plurality of forwarding nodes, wherein the first forwarding node and the second forwarding node are nodes in the plurality of forwarding nodes, and a forwarding delay of the forwarding path meets a delay requirement of a service. receiving , by a network device, notification packets separately sent by a plurality of forwarding nodes, wherein each notification packet comprises interface forwarding delay information of the forwarding node that sends the notification packet, device forwarding delay information of the forwarding node that sends the notification packet, and a transmission delay of a link connected to the forwarding node that sends the notification packet; obtaining , by the network device, the interface forwarding delay information and the device forwarding delay information of each of the plurality of forwarding nodes based on the notification packet, and obtaining a transmission delay of a link between the plurality of forwarding nodes based on the notification packet; and computing , by the network device, a forwarding path between a first forwarding node and a second forwarding node based on the interface forwarding delay information and the device forwarding delay information of each forwarding node and the transmission delay of the link between the plurality of forwarding nodes, wherein the first forwarding node and the second forwarding node are nodes in the plurality of forwarding nodes, and a forwarding delay of the forwarding path meets a delay requirement of a service.
A method comprising: determining , using sensor data obtained from one or more sensors of a host vehicle , whether multiple parking spaces are available in front of the host vehicle ; determining , using the sensor data, parking-space characteristics of each available parking space of the multiple parking spaces, the parking-space characteristics including a width , an entry turning radius , and a longitudinal distance to the available parking space ; determining , using an application of Bayesian theorem to conditional probability distributions for the parking-space characteristics, a selected parking space among the multiple parking spaces based on the parking-space characteristics, each conditional probability distribution identifying how probable a respective available space is likely to be chosen as the selected parking space given a respective parking-space characteristic, each conditional probability distribution for each parking-space characteristic having a respective predetermined mean value and a respective predetermined variance value, the selected parking space being the respective available space with a highest probability value; and controlling , using an assisted-driving or autonomous-driving system , operation of the host vehicle to park in the selected parking space . determining , using sensor data obtained from one or more sensors of a host vehicle , whether multiple parking spaces are available in front of the host vehicle ; determining , using the sensor data, parking-space characteristics of each available parking space of the multiple parking spaces, the parking-space characteristics including a width , an entry turning radius , and a longitudinal distance to the available parking space ; determining , using an application of Bayesian theorem to conditional probability distributions for the parking-space characteristics, a selected parking space among the multiple parking spaces based on the parking-space characteristics, each conditional probability distribution identifying how probable a respective available space is likely to be chosen as the selected parking space given a respective parking-space characteristic, each conditional probability distribution for each parking-space characteristic having a respective predetermined mean value and a respective predetermined variance value, the selected parking space being the respective available space with a highest probability value; and controlling , using an assisted-driving or autonomous-driving system , operation of the host vehicle to park in the selected parking space .
Method for charging an energy store of a vehicle using a charging apparatus , wherein a voltage (U) provided by the charging apparatus is measured at a port of the vehicle , wherein a charging current (I) that is provided by the charging apparatus and charges the energy store is regulated to an optimum depending on the voltage (U) in order to limit power losses that occur during charging at the charging apparatus and/or in the vehicle due to the charging, characterized in that the voltage (U) at the port of the vehicle is measured as quiescent voltage in the unloaded state of the charging apparatus , wherein the charging current (I) is equal to zero in the unloaded state of the charging apparatus , wherein the charging current (I) is regulated during charging depending on a difference (dU) between the quiescent voltage and the voltage (U) currently measured at the port of the vehicle during charging, and wherein the charging current (I) is regulated during charging so as to keep a ratio of the difference (dU) and the quiescent voltage in a range from 1% to 5%.
A method for a network entity, NE, to optimize positioning of a user equipment, UE (UE1, UE2, UE3), where the reliability of positioning of a UE depends on static circumstances and situational/environmental circumstances, where static circumstances are the sensor capabilities and sensor quality related to the UE (UE1, UE2, UE3), radio access network, RAN, capabilities, and general system limitations, where static circumstances remain the same regardless of the position of the UE, where situational/environmental circumstances depend on the situation or environment of the UE, where situational/environmental circumstances change with the position and/or other physical states of the UE, wherein the NE requests a quality report from a measurement unit, MU, to enable the MU to report on quality changes due to situational or environmental circumstances to the NE; wherein the request indicates the positioning technologies used for quality reporting, wherein the NE informs the MU which sensors and technologies to monitor and requests a report from these sensors and technologies, wherein the NE receives results from measurements performed by the MU, which measurements are performed by the MU with or without further network assistance, wherein in response to the NE request, the NE receives a message including the MU quality report in order to enable the NE to decide on the best positioning method for the UE in the current situation for the indicated sensors and technologies, and wherein the NE perform the position calculation.
- Tyre with radial carcass reinforcement, the inflation pressure of which is greater than or equal to 6 bar, comprising a crown reinforcement , itself capped radially by a tread , said tread being connected to two beads, each bead comprising a bead wire , by means of two sidewalls, said carcass reinforcement being made up of two layers of textile reinforcing elements, a first layer of carcass reinforcement being turned up around the bead wire in each of the beads, the ends of said first layer of carcass reinforcement being radially on the outside of the radially outermost point of the bead wire in each bead and the second layer of carcass reinforcement extending from one bead to the other, the ends of said second layer of carcass reinforcement being radially on the inside of the radially outermost point of the bead wire in each bead, characterized in that the reinforcing elements of the two carcass reinforcement layers are made of polyester, in that an additional layer of polyester reinforcing elements is present in each of the sidewalls, in that, in each of the sidewalls, the radially inner end of said additional layer of polyester reinforcing elements is in a region that is radially delimited externally by a straight line of axial orientation that is radially distant from the radially outermost point of the bead wire by a distance equal to two times the height of the bead wire, said height of the bead wire is defined as being the radial distance between the radially outermost point of the bead wire and the radially innermost point of the bead wire , in that, on either side of the equatorial plane, said additional layer of polyester reinforcing elements has a radially outer end which is radially on the inside of the crown reinforcement and axially on the inside of the axially outermost end of the crown reinforcement closest to said radially outer end of said additional layer of polyester reinforcing elements, in that the ratio of the linear density of reinforcing elements per unit width of the second layer of carcass reinforcement to the linear density of reinforcing elements per unit width of the first layer of carcass reinforcement is between 75% and 100%, in that the linear density of reinforcing elements per unit width of the additional layer of polyester reinforcing elements is less than or equal to the linear density of reinforcing elements per unit width of the first layer of carcass reinforcement .
A surgical adapter assembly comprising: a coupling assembly configured for securing the surgical adapter assembly to a handle assembly ; an elongate body extending from the coupling assembly; a loading unit secured to a distal portion of the elongate body and including a firing assembly ; a trocar member configured to move through the loading unit; and a first drive assembly extending through the elongate body configured to effect stapling and cutting of tissue, the first drive assembly being operably connected to the firing assembly, wherein the firing assembly includes a cycloid gear assembly for increasing an input torque from the first drive assembly to actuate the firing assembly; wherein the surgical adapter assembly further comprises a second drive assembly extending through the elongate body configured to effect gross movement of the trocar member through the loading unit, characterised in that the second drive assembly includes a drive screw and a push/pull cable movably secured to the drive screw by a threaded nut , wherein the trocar member is disposed on a distal portion of the push/pull cable and rotation of the drive screw causes longitudinal movement of the push/pull cable. a coupling assembly configured for securing the surgical adapter assembly to a handle assembly ; an elongate body extending from the coupling assembly; a loading unit secured to a distal portion of the elongate body and including a firing assembly ; a trocar member configured to move through the loading unit; and a first drive assembly extending through the elongate body configured to effect stapling and cutting of tissue, the first drive assembly being operably connected to the firing assembly, wherein the firing assembly includes a cycloid gear assembly for increasing an input torque from the first drive assembly to actuate the firing assembly; wherein the surgical adapter assembly further comprises a second drive assembly extending through the elongate body configured to effect gross movement of the trocar member through the loading unit, characterised in that the second drive assembly includes a drive screw and a push/pull cable movably secured to the drive screw by a threaded nut , wherein the trocar member is disposed on a distal portion of the push/pull cable and rotation of the drive screw causes longitudinal movement of the push/pull cable.
A solid-state image capturing apparatus comprising: a pixel array unit including two-dimensionally arranged pixels by rows and columns, each pixel including a photoelectric conversion unit , a transfer transistor for transferring charges accumulated in the photoelectric conversion unit to a floating diffusion section of said pixel, and a charge discharging transistor that selectively discharges the charges accumulated in the photoelectric conversion unit , the charge discharging transistor being connected between the photoelectric conversion unit and a charge discharging node, the pixel array unit further including a reset transistor for resetting the pixel at said floating diffusion section , a select transistor for performing pixel selection, and a driving unit that is adapted to cause said transferring of charges for all pixels and thereafter to perform driving for reading signals from each pixel of the pixel array unit by selecting a row and by applying control signals to respective transistors of the selected row, wherein the driving unit is adapted to drive the charge discharging transistor of a pixel of a row by using a signal used for driving the select transistor of a pixel of a row which is read after reading the row of the pixel of the charge discharging transistor. a pixel array unit including two-dimensionally arranged pixels by rows and columns, each pixel including a photoelectric conversion unit , a transfer transistor for transferring charges accumulated in the photoelectric conversion unit to a floating diffusion section of said pixel, and a charge discharging transistor that selectively discharges the charges accumulated in the photoelectric conversion unit , the charge discharging transistor being connected between the photoelectric conversion unit and a charge discharging node, the pixel array unit further including a reset transistor for resetting the pixel at said floating diffusion section , a select transistor for performing pixel selection, and a driving unit that is adapted to cause said transferring of charges for all pixels and thereafter to perform driving for reading signals from each pixel of the pixel array unit by selecting a row and by applying control signals to respective transistors of the selected row, wherein the driving unit is adapted to drive the charge discharging transistor of a pixel of a row by using a signal used for driving the select transistor of a pixel of a row which is read after reading the row of the pixel of the charge discharging transistor.
A nuclear reactor latch assembly for attaching a latch housing to a support plate , comprising: the latch housing ; and a latch mechanism that includes a projection member, wherein the latch mechanism is adapted to provide a biasing force on the projection member, characterised in that the projection member is a spheroidal member and the latch assembly further comprises a biasing member that provides the biasing force on the spheroidal member ; wherein the spheroidal member at least partially projects from a surface of the latch housing . the latch housing ; and a latch mechanism that includes a projection member, wherein the latch mechanism is adapted to provide a biasing force on the projection member, characterised in that the projection member is a spheroidal member and the latch assembly further comprises a biasing member that provides the biasing force on the spheroidal member ;
A core comprising a fiberized fluff pulp comprising softwood fibers and from 3 to 35 % by weight of hardwood fibers, and one or more super absorbent polymers (SAP).
A gel adhesive composition comprising: a crosslinked polymeric siloxane matrix; and a polymeric fluid with a weight average molecular weight greater than 275,000 grams/mole, wherein the polymeric fluid is extractable, and wherein the weight percentage of the extractable polymeric fluid comprises 26-80 weight % of the gel adhesive composition, the weight average molecular weight and weight percentage being measured as described in the description, wherein the polymeric fluid is a siloxane polymeric fluid described by Formula 1: wherein R1, R2, R3, and R4 are independently selected from the group consisting of a substituted or unsubstituted alkyl or aryl group; each R5 is an alkyl group, each X is an R5 group or a -OH group, and n and m are integers, wherein at least one of m or n is not zero. a crosslinked polymeric siloxane matrix; and a polymeric fluid with a weight average molecular weight greater than 275,000 grams/mole, wherein the polymeric fluid is extractable, and wherein the weight percentage of the extractable polymeric fluid comprises 26-80 weight % of the gel adhesive composition, the weight average molecular weight and weight percentage being measured as described in the description, wherein the polymeric fluid is a siloxane polymeric fluid described by Formula 1: wherein R1, R2, R3, and R4 are independently selected from the group consisting of a substituted or unsubstituted alkyl or aryl group; each R5 is an alkyl group, each X is an R5 group or a -OH group, and n and m are integers, wherein at least one of m or n is not zero.