mhurhangee/ep-ind-claims huggingface dataset:
A client device comprising: a communication interface; and a local memory comprising: an application logic unit; a client logic unit; and a data interface, wherein the client logic unit is configured to cause, in response to a memory allocation request, allocation of a region of an external memory that is accessible on a memory appliance by the client device through the communication interface, wherein the external memory is memory that is external to the client device but primary memory to the client device, wherein the application logic unit is configured to allocate, using the data interface, a subset of the previously allocated region of the external memory, wherein all or a portion of the region of external memory is mapped at the client device into a virtual address space, and wherein the client logic unit is further configured to access the external memory on the memory appliance through the communication interface using client-side memory access over a memory access protocol allowing access to the external memory bypassing a central processing unit of the memory appliance. a communication interface; and a local memory comprising: an application logic unit; a client logic unit; and a data interface, wherein the client logic unit is configured to cause, in response to a memory allocation request, allocation of a region of an external memory that is accessible on a memory appliance by the client device through the communication interface, wherein the external memory is memory that is external to the client device but primary memory to the client device, wherein the application logic unit is configured to allocate, using the data interface, a subset of the previously allocated region of the external memory, wherein all or a portion of the region of external memory is mapped at the client device into a virtual address space, and wherein the client logic unit is further configured to access the external memory on the memory appliance through the communication interface using client-side memory access over a memory access protocol allowing access to the external memory bypassing a central processing unit of the memory appliance. an application logic unit; a client logic unit; and a data interface, wherein the client logic unit is configured to cause, in response to a memory allocation request, allocation of a region of an external memory that is accessible on a memory appliance by the client device through the communication interface, wherein the external memory is memory that is external to the client device but primary memory to the client device, wherein the application logic unit is configured to allocate, using the data interface, a subset of the previously allocated region of the external memory, wherein all or a portion of the region of external memory is mapped at the client device into a virtual address space, and wherein the client logic unit is further configured to access the external memory on the memory appliance through the communication interface using client-side memory access over a memory access protocol allowing access to the external memory bypassing a central processing unit of the memory appliance.
A pharmaceutical composition, comprising (i) a chimeric polypeptide, which comprises a Factor VIII (FVIII) portion and a second portion, and (ii) at least one pharmaceutically acceptable excipient, wherein 25% to 40% of the FVIII portion of the chimeric polypeptide is single chain FVIII, and 60% to 75% of the FVIII portion of the chimeric polypeptide is processed FVIII, wherein the single chain FVIII comprises a FVIII heavy chain and a FVIII light chain on a single polypeptide chain and the processed FVIII comprises a FVIII heavy chain and a FVIII light chain on two polypeptide chains. (i) a chimeric polypeptide, which comprises a Factor VIII (FVIII) portion and a second portion, and (ii) at least one pharmaceutically acceptable excipient, wherein 25% to 40% of the FVIII portion of the chimeric polypeptide is single chain FVIII, and 60% to 75% of the FVIII portion of the chimeric polypeptide is processed FVIII, wherein the single chain FVIII comprises a FVIII heavy chain and a FVIII light chain on a single polypeptide chain and the processed FVIII comprises a FVIII heavy chain and a FVIII light chain on two polypeptide chains. 25% to 40% of the FVIII portion of the chimeric polypeptide is single chain FVIII, and 60% to 75% of the FVIII portion of the chimeric polypeptide is processed FVIII, wherein the single chain FVIII comprises a FVIII heavy chain and a FVIII light chain on a single polypeptide chain and the processed FVIII comprises a FVIII heavy chain and a FVIII light chain on two polypeptide chains.
Method for estimating a tilt angle β(t) of at least one given particle motion sensor nearly collocated, in a towed multi-sensor streamer for seismic prospection, with a pressure sensor, said given particle motion sensor having two orthogonal sensing axes Y and Z in a plane orthogonal to a longitudinal axis of the streamer, the tilt angle being formed by said Z sensing axis and a reference vertical axis Z0, the method comprising, for said given particle motion sensor, a step of computing a first estimate β 0 of said tilt angle, comprising: - obtaining first data (P(t)) measured by the pressure sensor nearly collocated with said given particle motion sensor; - obtaining second and third data (AccY(t), AccZ(t)) measured by said given particle motion sensor along the sensing axes Y and Z respectively; - for at least two values of a rotation angle θ, rotating the second and third data by the rotation angle θ, to obtain rotated second and third data (AccYe(t), AccZe(t)); and - computing a particular value θ max among said at least two values of the rotation angle, which maximizes, over at least one frequency, a coherence function between the first data and the rotated third data, or between the first data and velocity data resulting from an integration of the rotated third data, said particular value θ max being equal to said first estimate β 0; and the coherence function is maximized over a predetermined range of frequencies that is 0.5Hz to 3Hz. - obtaining first data (P(t)) measured by the pressure sensor nearly collocated with said given particle motion sensor; - obtaining second and third data (AccY(t), AccZ(t)) measured by said given particle motion sensor along the sensing axes Y and Z respectively; - for at least two values of a rotation angle θ, rotating the second and third data by the rotation angle θ, to obtain rotated second and third data (AccYe(t), AccZe(t)); and - computing a particular value θ max among said at least two values of the rotation angle, which maximizes, over at least one frequency, a coherence function between the first data and the rotated third data, or between the first data and velocity data resulting from an integration of the rotated third data, said particular value θ max being equal to said first estimate β 0;
A pump assembly with an electric drive motor and with an electronics housing, in whose inside at least one first electrical circuit board is arranged, on which circuit board electrical contacts are formed, characterised in that via the electrical contacts at least one electronic component in the inside of the electronics housing may be programmed and at least one opening, through which the electrical contacts on the circuit board are contactable from the outside, is formed in a wall of the electronics housing.
A transmission device comprising: a video signal transmission unit configured to transmit video signals to an external device via a transmission path with a plurality of channels using a differential signal; a communication unit configured to communicate with said external device via a communication path made up of a pair of differential transmission paths comprising a reserve line and an HPD line included in said transmission path; the transmission device being arranged in operation to monitor a voltage of the HPD line; and if the voltage is in a high state, a function information transmission unit is configured to transmit first function information indicating that said transmission device includes said communication unit to said external device via a control data line making up said transmission path; and a function information reception unit is configured to receive second function information indicating that said external device includes a communication unit configured to execute communication via said communication path, which is transmitted from said external device; wherein the pair of differential transmission paths included in said communication path make up an HDMI cable, and at least one of said pair of differential transmission paths includes a function for notifying the connection state of said external device using a DC bias potential. a video signal transmission unit configured to transmit video signals to an external device via a transmission path with a plurality of channels using a differential signal; a communication unit configured to communicate with said external device via a communication path made up of a pair of differential transmission paths comprising a reserve line and an HPD line included in said transmission path; a function information transmission unit is configured to transmit first function information indicating that said transmission device includes said communication unit to said external device via a control data line making up said transmission path; and a function information reception unit is configured to receive second function information indicating that said external device includes a communication unit configured to execute communication via said communication path, which is transmitted from said external device;
A tire (10, 40, 50) comprising: a tire carcass member fabricated of resin that includes: a bead portion covering a bead core, a side portion extending to a tire radius direction outer side from the bead portion, and a crown portion extending to a tire width direction inner side from the side portion; and a reinforcing layer (14, 42, 52) provided with a plurality of cords (34, 44, 54) that are covered with resin or rubber, characterised in that the reinforcing layer extends from the bead portion of the tire carcass member toward the side portion and covers at least an outer periphery face of the side portion. a tire carcass member fabricated of resin that includes: a bead portion covering a bead core, a side portion extending to a tire radius direction outer side from the bead portion, and a crown portion extending to a tire width direction inner side from the side portion; and a bead portion covering a bead core, a side portion extending to a tire radius direction outer side from the bead portion, and a crown portion extending to a tire width direction inner side from the side portion; and a reinforcing layer (14, 42, 52) provided with a plurality of cords (34, 44, 54) that are covered with resin or rubber, characterised in that the reinforcing layer extends from the bead portion of the tire carcass member toward the side portion and covers at least an outer periphery face of the side portion.
A security element, comprising a carrier substrate, at least one layer reflecting electromagnetic waves, at least one polymeric transparent spacer layer and at least one layer formed of metallic clusters, characterized in that brushed polymer films or brushed or embossed metal foils are used as the carrier substrate, at least one surface of the carrier substrate comprising depressions as a result of mechanical surface modification, the average depth of the depressions being in the range of 1 to 10 μm, and a thin layer structure comprising the layer made of metallic clusters, the polymeric spacer layer and the layer reflecting electromagnetic waves being applied to this surface of the carrier substrate.
Sealing system (30, 50, 60), comprising • a first component (12, 62) and a second component (14, 66) which are separated from one another by a sealing gap (16, 36, 56, 68) in a common sealing region, • at least one groove-like depression (18, 58, 70) in at least one of the two components, which depression merges into the sealing gap (16, 36, 56, 68), characterized in that a sealing means comprising: • a sleeve-like deformable sealing body (32, 52, 72, 82) by means of which at least one cavity (34, 54, 74, 84, 86) is hermetically enclosed, • wherein the cavity (34, 54, 74, 84, 86) of the sealing body (32, 52, 72, 82) is filled by a filling material contained therein, • wherein the volume of the filling material in a first temperature range has a pronounced thermosensitive expansion behaviour with respect to at least one second temperature range, is arranged in the groove-like depression (18, 58, 70) and embodied in such a way that the sealing gap (16, 36, 56, 68) is opened by the sealing means in a non-expanded state, that the sealing means experiences a volume expansion merely on reaching a temperature range predetermined by the filling material, and that the sealing gap (16, 36, 56, 68) is closed by the sealing means in an expanded state. • a first component (12, 62) and a second component (14, 66) which are separated from one another by a sealing gap (16, 36, 56, 68) in a common sealing region, • at least one groove-like depression (18, 58, 70) in at least one of the two components, which depression merges into the sealing gap (16, 36, 56, 68), • a sleeve-like deformable sealing body (32, 52, 72, 82) by means of which at least one cavity (34, 54, 74, 84, 86) is hermetically enclosed, • wherein the cavity (34, 54, 74, 84, 86) of the sealing body (32, 52, 72, 82) is filled by a filling material contained therein, • wherein the volume of the filling material in a first temperature range has a pronounced thermosensitive expansion behaviour with respect to at least one second temperature range,
Flexible pipe having a covered reinforcement comprising at least one internal layer, one external layer and a covered reinforcement inserted between the internal layer and the external layer, characterized in that the covered reinforcement is positioned between two layers of hot-melt adhesive (5a, 5b) in order to adhere to the internal layer and the external layer and such that the effective free surface area of the internal layer is between 20 and 130 cm 2 per linear metre of pipe, the effective free surface area being defined by: Sfree. eff = 1 − B π. D − 2 1 + A eNb 1 + π 2 D 2 / P 2 + 4 Nb 1 + A 2 e 2 cosαsinα / P with B a corrective factor corresponding to the edge effects and which is given by B = 0.05Nb 2 /36, where Nb is a number of yarns, with D, P and e respectively a helical diameter, pitch and thickness, with A a corrective factor corresponding to the flattening of the yarns, and α an angle of crossing between the yarns. with B a corrective factor corresponding to the edge effects and which is given by B = 0.05Nb 2 /36, where Nb is a number of yarns, with D, P and e respectively a helical diameter, pitch and thickness, with A a corrective factor corresponding to the flattening of the yarns, and α an angle of crossing between the yarns.
A compound which is a benzimidazole of formula: wherein: R 1 is -(CH 2) m -R 7, R 2 is H, halo, -(CH 2) m -NH 2, -(CH 2) n -C(=NH)-NH 2 or -(CH 2) n -NH-(CH 2) m -NHR 9; R 3 is H, F or Cl; each of R 4, R 5 and R 6 is independently H or F; R 7 is C 1 -C 6 alkyl, CF 3, -SO 2 R 11, -NH-(CH 2) 2 - r -R 8, -NH-CH(R 8 R 9) or a group of the following formula: W is -(CH 2) m -, -CH 2 -O-CH 2 -, -CH 2 -S-CH 2 -, -(CH 2) r -S 2 -CH 2 - or -(CH 2) r -NR 8 -CH 2 -; m is an integer of 1 to 3; n is 1 or 2; p is 1 and V is CH; or p is 0 and V is N; q is 0 or 1; r is 0 or 1; R 8 is H, -SO 2 R 11, -SO 2 CF 3, -COR 11, -C OR 11, -CON(R 9) 2 or -(CH 2) n SO 2 R 11; R 9 is H or C 1 -C 6 alkyl, each R 9 being the same or different when two are present; R 10 is -SO 2 R 11, -SO 2 CF 3, -COR 11, -CON(R 9) 2 or -(CH 2) n SO 2 R 11; and R 11 is C 1 -C 6 alkyl; or a pharmaceutically acceptable salt thereof. R 1 is -(CH 2) m -R 7, R 2 is H, halo, -(CH 2) m -NH 2, -(CH 2) n -C(=NH)-NH 2 or -(CH 2) n -NH-(CH 2) m -NHR 9; R 3 is H, F or Cl; each of R 4, R 5 and R 6 is independently H or F; R 7 is C 1 -C 6 alkyl, CF 3, -SO 2 R 11, -NH-(CH 2) 2 - r -R 8, -NH-CH(R 8 R 9) or a group of the following formula: W is -(CH 2) m -, -CH 2 -O-CH 2 -, -CH 2 -S-CH 2 -, -(CH 2) r -S 2 -CH 2 - or -(CH 2) r -NR 8 -CH 2 -; m is an integer of 1 to 3; n is 1 or 2; p is 1 and V is CH; or p is 0 and V is N; q is 0 or 1; r is 0 or 1; R 8 is H, -SO 2 R 11, -SO 2 CF 3, -COR 11, -C OR 11, -CON(R 9) 2 or -(CH 2) n SO 2 R 11; R 9 is H or C 1 -C 6 alkyl, each R 9 being the same or different when two are present; R 10 is -SO 2 R 11, -SO 2 CF 3, -COR 11, -CON(R 9) 2 or -(CH 2) n SO 2 R 11; and R 11 is C 1 -C 6 alkyl;
Composition comprising monacolin K, policosanols and a mixture of neoeriocitrin, naringin and neohesperidin, wherein said monacolin K and said mixture of neoeriocitrin, naringin and neohesperidin are in a weight ratio of 1:5 to 1:20 and said policosanols are in the form of a mixture comprising at least 98% w/w C24-C40 fatty alcohols, of which at least 60% w/w 1-octacosanol.
An aircraft wheel comprising a hub connected to a rim provided with a tire, the hub having an outer surface that extends facing an inner surface of the rim and that co-operates therewith to define an annular space for receiving a stack of brake disks including rotor disks having axial peripheral notches, each notch receiving a segment of an axial bar extending projecting from the inner surface of the rim, and respective heat shields, each in the form of an annular segment, being mounted between the two bars of respective pairs of adjacent bars, each heat shield including at least one holder portion bearing against at least one first abutment (19, 119) secured to the rim in order to hold the heat shield in position on the rim elastically, the wheel being characterized in that the holder portion and the first abutment are arranged to be put into engagement while the heat shield is moving substantially radially relative to the rim.
Method for recording a video program, said video program being received in the form of a bitstream by at least one receiver, a so-called recorder receiver, having to record the video program on a remote server, each recorder receiver being linked to the remote server by a communication network and being characterized by an emission bitrate, the bitstream being characterized by an encoding bitrate, characterized in that the method is implemented by each recorder receiver and in that for a recorder receiver, the method comprises the following steps: - obtaining a value, so-called compression factor, used by the recorder receiver to determine which sub-part of the bitstream to dispatch to the remote server, the compression factor being calculated as a function of the value representative of the encoding bitrate of the video program to be recorded and of a value representative of the emission bitrate of the recorder receiver; - division of the bitstream into a set of successive segments of fixed size, and ordering said segments as a function of their order of appearance in the bitstream; - determination of a subset of segments to be transmitted to the remote server on the basis of said set by selecting in said set segments spaced apart by a number of segments which is equal to the compression factor by traversing said set on the basis of a segment corresponding to a shift value, the shift value being a remainder of an integer division of a random number determined by the recorder receiver by the compression factor; and - transmission of the segments of the determined subset of segments to the remote server with a view to their saving, transmission being prevented by the remote server if it transpires that another recorder receiver has already dispatched one and the same shift value to the remote server. - obtaining a value, so-called compression factor, used by the recorder receiver to determine which sub-part of the bitstream to dispatch to the remote server, the compression factor being calculated as a function of the value representative of the encoding bitrate of the video program to be recorded and of a value representative of the emission bitrate of the recorder receiver; - division of the bitstream into a set of successive segments of fixed size, and ordering said segments as a function of their order of appearance in the bitstream; - determination of a subset of segments to be transmitted to the remote server on the basis of said set by selecting in said set segments spaced apart by a number of segments which is equal to the compression factor by traversing said set on the basis of a segment corresponding to a shift value, the shift value being a remainder of an integer division of a random number determined by the recorder receiver by the compression factor; and - transmission of the segments of the determined subset of segments to the remote server with a view to their saving, transmission being prevented by the remote server if it transpires that another recorder receiver has already dispatched one and the same shift value to the remote server.
A curved tube vibrating flow meter, comprising: a flow tube temperature sensor T T affixed to one or more curved flow tubes (131, 131') of the curved tube vibrating flow meter, with the flow tube temperature sensor T T generating a flow tube temperature signal; a plurality of case temperature sensors T C affixed to one or more case locations of a case of the curved tube vibrating flow meter and generating a case temperature signal, wherein a plurality of case temperature sensor resistances at the one or more case locations form a combined case resistance related to thermal importances of the one or more case locations; and meter electronics configured to receive the flow tube temperature signal, receive the case temperature signal, and compensate the curved tube vibrating flow meter for thermal stress using the flow tube temperature signal and the case temperature signal. a flow tube temperature sensor T T affixed to one or more curved flow tubes (131, 131') of the curved tube vibrating flow meter, with the flow tube temperature sensor T T generating a flow tube temperature signal; a plurality of case temperature sensors T C affixed to one or more case locations of a case of the curved tube vibrating flow meter and generating a case temperature signal, wherein a plurality of case temperature sensor resistances at the one or more case locations form a combined case resistance related to thermal importances of the one or more case locations; and meter electronics configured to receive the flow tube temperature signal, receive the case temperature signal, and compensate the curved tube vibrating flow meter for thermal stress using the flow tube temperature signal and the case temperature signal.