mhurhangee/ep-ind-claims huggingface dataset:
A terminal (110, 410), comprising: a processor configured to prepare a first request message regarding information desired from an access point (120, 420); a transmitter configured to transmit the first request message to the access point; and a receiver configured to receive from the access point a first response message in response to the first request message requesting the terminal to come back, wherein the processor is further configured to control the terminal to wait a predetermined amount of time and to prepare a second request message regarding the information desired responsive to the first response message, wherein the transmitter is further configured to transmit the second request message to the access point, and wherein the receiver is further configured to receive a second response message from the access point providing the information desired. a processor configured to prepare a first request message regarding information desired from an access point (120, 420); a transmitter configured to transmit the first request message to the access point; and a receiver configured to receive from the access point a first response message in response to the first request message requesting the terminal to come back, wherein the processor is further configured to control the terminal to wait a predetermined amount of time and to prepare a second request message regarding the information desired responsive to the first response message, wherein the transmitter is further configured to transmit the second request message to the access point, and wherein the receiver is further configured to receive a second response message from the access point providing the information desired.
A method comprising: calculating, by a storage server, a level of fragmentation that would be introduced to a data set stored by the storage server as a result of a deduplication operation on the data set; and determining, by the storage server, whether to perform the deduplication operation based on a result of said calculating; characterised in that calculating the level of fragmentation includes: calculating a number of read operations needed to access the data set after the deduplication operation; calculating a number of read operations needed to access an ideal data set, wherein the ideal data set is a data set that is stored in contiguous physical data blocks and can be accessed with the lowest number of read operations; and calculating a fragmentation index representative of the level of fragmentation based on the number of read operations needed to access the data set after the deduplication and the number of read operations needed to access the ideal data set, wherein determining whether to perform the deduplication operation is based on the fragmentation index. calculating, by a storage server, a level of fragmentation that would be introduced to a data set stored by the storage server as a result of a deduplication operation on the data set; and determining, by the storage server, whether to perform the deduplication operation based on a result of said calculating; calculating a number of read operations needed to access the data set after the deduplication operation; calculating a number of read operations needed to access an ideal data set, wherein the ideal data set is a data set that is stored in contiguous physical data blocks and can be accessed with the lowest number of read operations; and calculating a fragmentation index representative of the level of fragmentation based on the number of read operations needed to access the data set after the deduplication and the number of read operations needed to access the ideal data set, wherein determining whether to perform the deduplication operation is based on the fragmentation index.
A band clamp insulation assembly (100A-100D) configured for a hollow tubular member and alleviating formation of gaps due to differential thermal expansion of the hollow tubular member and an insulation, characterized in that the assembly comprises: a securing member having a first elongate member, wherein a predetermined fixing portion of the securing member is configured to be affixed to the hollow tubular member; a band clamp member configured for securing an insulation cover between the band clamp member and the hollow tubular member, wherein the band clamp member comprises a second elongate member and a clamping member; and a coupling member configured for fastening the first elongate member affixed to the hollow tubular member and the second elongate member positioned around the hollow tubular member, wherein the coupling member comprises a first connector configured for receiving the second elongate member and an adjacent second connector configured for receiving the first elongate member. a securing member having a first elongate member, wherein a predetermined fixing portion of the securing member is configured to be affixed to the hollow tubular member; a band clamp member configured for securing an insulation cover between the band clamp member and the hollow tubular member, wherein the band clamp member comprises a second elongate member and a clamping member; and a coupling member configured for fastening the first elongate member affixed to the hollow tubular member and the second elongate member positioned around the hollow tubular member, wherein the coupling member comprises a first connector configured for receiving the second elongate member and an adjacent second connector configured for receiving the first elongate member.
A hood lifting mechanism for a vehicle having a frunk, comprising: at least one lifting means configured to lift a hood of the vehicle, and a deformable material configured to be attached to an inner surface of the hood, wherein the deformable material is configured to switch from a first position, in which the deformable material is either flat or forms a dome being directed towards the inner surface of the hood, into a second position, in which the deformable material forms a dome being directed towards the frunk, when the at least one lifting means is activated; whereby the deformable material is configured such that switching the deformable material into the second position, when the at least one lifting means is activated, a volume of the frunk is reduced. at least one lifting means configured to lift a hood of the vehicle, and a deformable material configured to be attached to an inner surface of the hood, wherein the deformable material is configured to switch from a first position, in which the deformable material is either flat or forms a dome being directed towards the inner surface of the hood, into a second position, in which the deformable material forms a dome being directed towards the frunk, when the at least one lifting means is activated; whereby the deformable material is configured such that switching the deformable material into the second position, when the at least one lifting means is activated, a volume of the frunk is reduced.
A composition comprising: a branched poly(hydroxyacid) polymer [polymer] obtained from the polycondensation reaction of a monomer mixture comprising: (i) at least one hydroxyacid having only one hydroxyl group and only one carboxylic acid group [hydroxyacid]; (ii) optionally at least one carboxylic acid having one or two carboxylic acid groups and being free from hydroxyl group [acid], and (iii) at least one polyfunctional reactant different from hydroxyacid and acid, [reactant], selected from the group consisting of: - compounds containing at least one epoxy functional group, preferably compounds selected from the group consisting of epoxysilanes and polyepoxides; and - mixtures comprising at least one polyol comprising at least three hydroxyl groups and being free from carboxylic acid group [polyol] and at least one polyacid comprising at least two carboxylic acid groups and being free from hydroxyl groups [polyacid]; and - mixtures comprising at least one polyol comprising at least three hydroxyl groups and being free from carboxylic acid group [polyol] and at least one alcohol comprising one or two hydroxyl groups and being free from carboxylic acid group [alcohol] and a chain extending agent comprising epoxy functional groups and having a number average functionality ≥ 2, [agent], in an amount of from 0.01 to less than 1.00 wt% with respect to the combined weight of polymer and agent. (i) at least one hydroxyacid having only one hydroxyl group and only one carboxylic acid group [hydroxyacid]; (ii) optionally at least one carboxylic acid having one or two carboxylic acid groups and being free from hydroxyl group [acid], and (iii) at least one polyfunctional reactant different from hydroxyacid and acid, [reactant], selected from the group consisting of: - compounds containing at least one epoxy functional group, preferably compounds selected from the group consisting of epoxysilanes and polyepoxides; and - mixtures comprising at least one polyol comprising at least three hydroxyl groups and being free from carboxylic acid group [polyol] and at least one polyacid comprising at least two carboxylic acid groups and being free from hydroxyl groups [polyacid]; and - mixtures comprising at least one polyol comprising at least three hydroxyl groups and being free from carboxylic acid group [polyol] and at least one alcohol comprising one or two hydroxyl groups and being free from carboxylic acid group [alcohol] - compounds containing at least one epoxy functional group, preferably compounds selected from the group consisting of epoxysilanes and polyepoxides; and - mixtures comprising at least one polyol comprising at least three hydroxyl groups and being free from carboxylic acid group [polyol] and at least one polyacid comprising at least two carboxylic acid groups and being free from hydroxyl groups [polyacid]; and - mixtures comprising at least one polyol comprising at least three hydroxyl groups and being free from carboxylic acid group [polyol] and at least one alcohol comprising one or two hydroxyl groups and being free from carboxylic acid group [alcohol]
A method of enhancing skin hydration, the method comprising applying a rinse-off personal care composition comprising a) a cleaning phase; and b) a benefit phase, wherein the benefit phase comprises a benefit agent wherein the benefit agent is selected from the group consisting of petrolatum, glyceryl monooleate, mineral oil, castor oil, soybean oil, and mixtures thereof, and a zinc containing material comprising zinc pyrithione, to non-diseased skin of an individual, wherein the non-diseased skin comprises dry skin. a) a cleaning phase; and b) a benefit phase, wherein the benefit phase comprises a benefit agent wherein the benefit agent is selected from the group consisting of petrolatum, glyceryl monooleate, mineral oil, castor oil, soybean oil, and mixtures thereof, and a zinc containing material comprising zinc pyrithione,
An antibody specific for CD38 comprising a variable heavy chain of the sequence QVQLVESGGGLVQPGGSLRLSCAASGFTFSSYYMNWVRQAPGKGLEWVSGISGDPSNTYY ADSVKGRFTISRDNSKNTLYLQMNSLRAEDTAVYYCARDLPLVYTGFAYWGQGTLVTVSS (SEQ ID NO: 8) and a variable light chain of the sequence DIELTQPPSVSVAPGQTARISCSGDNLRHYYVYWYQQKPGQAPVLVIYGDSKRPSGIPE RFSGSNSGNTATLTISGTQAEDEADYYCQTYTGGASLVFGGGTKLTVLGQ (SEQ ID NO: 9) and an IgG1 Fc region for use in the treatment of multiple myeloma, wherein said antibody is administered at a dose of 16 mg/kg or more once weekly (q1w) over at least eight weeks, and wherein said antibody is administered in combination with dexamethasone.
A method comprising: acquiring a first shear wave image of at least one shear wave propagation property; acquiring a strain image; and converting the strain image to a second shear wave image of at least one shear wave propagation property based on the first shear wave image, characterised in that converting the strain image to the second shear wave image of at least one shear wave propagation property comprises: dividing the strain image and the first shear wave image into plural areas; calculating a regression line and a correlation coefficient between the strain image values and the first shear wave image values in each area of the plural areas; if the correlation coefficient in said each area is greater than a preset value, converting the strain image values to shear wave values based on the regression line in said each area; and if the correlation coefficient in said each area is not greater than the preset value, converting the strain image values to shear wave values based on the regression line in the nearest neighbor area of said each area. acquiring a first shear wave image of at least one shear wave propagation property; acquiring a strain image; and converting the strain image to a second shear wave image of at least one shear wave propagation property based on the first shear wave image, dividing the strain image and the first shear wave image into plural areas; calculating a regression line and a correlation coefficient between the strain image values and the first shear wave image values in each area of the plural areas; if the correlation coefficient in said each area is greater than a preset value, converting the strain image values to shear wave values based on the regression line in said each area; and if the correlation coefficient in said each area is not greater than the preset value, converting the strain image values to shear wave values based on the regression line in the nearest neighbor area of said each area.
A system for automatically controlling the timbre and loudness of sound in a listening room, comprising: a loudspeaker configured to generate an acoustic sound output (e[k]) from an electrical sound signal (Out[k]); a microphone configured to generate an electrical total sound signal (d[k]) representative of the total acoustic sound in the room, wherein the total acoustic sound comprises the acoustic sound output (e[k]) from the loudspeaker and ambient noise within the room, wherein an adaptive filter estimates a transfer function (H(z)) from the loudspeaker to the microphone output as estimated room data (W(ω)); a noise extraction block configured to receive the total sound signal (d[k]) from the microphone and to extract an estimated ambient noise signal ( N (ω)); a gain control block configured to provide a reference signal (Ns(co)), wherein the gain control block receives a desired noise power spectral density (DNPSD) and is controlled by a volume setting; and a gain-shaping block configured to receive the electrical sound signal (X(ω)), a volume setting, the estimated ambient noise signal ( N (ω)), the reference signal (N S (ω)) and a room-dependent gain signal (G room (ω)), the room-dependent gain signal (G room (ω)) being determined from reference room data (W ref (ω)) and the estimated room data (W(ω)); wherein the gain-shaping block is further configured to adjust the gain (G(ω)) of the electrical sound signal (X(ω)) dependent on the volume setting, the estimated ambient noise signal ( N (ω)), the reference signal (Ns(co)), and the room-dependent gain signal (G room (ω)). a loudspeaker configured to generate an acoustic sound output (e[k]) from an electrical sound signal (Out[k]); a microphone configured to generate an electrical total sound signal (d[k]) representative of the total acoustic sound in the room, wherein the total acoustic sound comprises the acoustic sound output (e[k]) from the loudspeaker and ambient noise within the room, wherein an adaptive filter estimates a transfer function (H(z)) from the loudspeaker to the microphone output as estimated room data (W(ω)); a noise extraction block configured to receive the total sound signal (d[k]) from the microphone and to extract an estimated ambient noise signal ( N (ω)); a gain control block configured to provide a reference signal (Ns(co)), wherein the gain control block receives a desired noise power spectral density (DNPSD) and is controlled by a volume setting; and a gain-shaping block configured to receive the electrical sound signal (X(ω)), a volume setting, the estimated ambient noise signal ( N (ω)), the reference signal (N S (ω)) and a room-dependent gain signal (G room (ω)), the room-dependent gain signal (G room (ω)) being determined from reference room data (W ref (ω)) and the estimated room data (W(ω)); wherein the gain-shaping block is further configured to adjust the gain (G(ω)) of the electrical sound signal (X(ω)) dependent on the volume setting, the estimated ambient noise signal ( N (ω)), the reference signal (Ns(co)), and the room-dependent gain signal (G room (ω)).
A condensate separator device for a compressor arrangement for the production of compressed air, the device comprising a separator housing that has a compressor-side inlet connection and an outlet connection for discharging the dehydrated compressed air, wherein a base-side water drain valve is provided to drain off the condensate that has collected in the separator housing into the environment by way of a drainage aperture, said valve being designed as a pneumatically pilot-controlled seat valve that can be actuated by an electro-pneumatic control valve, characterised in that the electro-pneumatic control valve of the water drain valve is arranged outside the separator housing in an area of the compressor arrangement that is always frost-free and is connected by way of a control pressure line to a pilot control connection of the water drain valve, wherein dry compressed air that can be drawn from a downstream air dehydration device or at least dehydrated compressed air available on the outlet side of the condensate separator device serves to feed the electro-pneumatic control valve.
Cast fixing device for a wiper arm with a first receptacle and a second receptacle, wherein a bearing bushing for providing an articulated connection to the wiper arm is arranged in the first receptacle, and a holding pin for fastening a spring of the wiper arm is arranged in the second receptacle, wherein a securing element (13; 14) which is configured to block an opening in the corresponding receptacle (15, 16) is provided over the bearing bushing in the first receptacle and/or over the holding pin in the second receptacle (15, 16), characterized in that the securing element (13; 14) has a central part with an arcuate cross section, wherein an inner contour of the central part, which inner contour is assigned to the holding pin or to the bearing bushing, is matched to a corresponding outer contour of the holding pin or of the bearing bushing.
Hearing apparatus having - a transmission device for wireless data transmission in a main frequency band, - a loudspeaker and - an actuating device for actuating the loudspeaker with an actuating signal, characterized in that - the actuating device has a pulse density modulator, and - the operating frequency of the pulse density modulator is chosen such that - the frequency spectrum of the pulse-density-modulated actuating signal has a substantial notch in a region of the main frequency band. - a transmission device for wireless data transmission in a main frequency band, - a loudspeaker and - an actuating device for actuating the - the actuating device has a pulse density modulator, and - the operating frequency of the pulse density modulator is chosen such that - the frequency spectrum of the pulse-density-modulated actuating signal has a substantial notch in a region of the main frequency band.
An elastically deformable sports equipment item (100; 200; 250; 300; 500), comprising: at least one deformable loop antenna (104; 204; 254; 304; 504) arranged around a curved surface (102; 106; 202; 206; 252; 256; 302; 306; 502; 506) within the sports equipment item, wherein the at least one deformable loop antenna comprises at least one turn of an elastic electric conductor and has an elongation reserve corresponding to a maximum elastic deformation of the sports equipment item. at least one deformable loop antenna (104; 204; 254; 304; 504) arranged around a curved surface (102; 106; 202; 206; 252; 256; 302; 306; 502; 506) within the sports equipment item, wherein the at least one deformable loop antenna comprises at least one turn of an elastic electric conductor and has an elongation reserve corresponding to a maximum elastic deformation of the sports equipment item.
A hermetically sealed wet electrolytic capacitor, comprising: a cathode based on: a metal substrate with an alloyed surface comprising a noble metal, and an electrode element layer formed on the metal substrate with the alloyed surface, the electrode element layer 26 comprising: a tacking layer comprising an electrodeposited smooth film, and a high surface area layer comprising a rough layer deposited on top of the tacking layer; a first terminal electrically connected to the cathode; an anode; a second terminal electrically connected to the cathode; a hermetically sealed case containing the anode, the cathode, and an electrolytic solution surrounding the anode and the cathode; characterized in that the hermetically sealed wet electrolytic capacitor is adapted to discharge-energy stored by the capacitor via the first and second terminals (30, 36). a cathode based on: a metal substrate with an alloyed surface comprising a noble metal, and an electrode element layer formed on the metal substrate with the alloyed surface, the electrode element layer 26 comprising: a tacking layer comprising an electrodeposited smooth film, and a high surface area layer comprising a rough layer deposited on top of the tacking layer; a metal substrate with an alloyed surface comprising a noble metal, and an electrode element layer formed on the metal substrate with the alloyed surface, the electrode element layer 26 comprising: a tacking layer comprising an electrodeposited smooth film, and a high surface area layer comprising a rough layer deposited on top of the tacking layer; a tacking layer comprising an electrodeposited smooth film, and a high surface area layer comprising a rough layer deposited on top of the tacking layer; a first terminal electrically connected to the cathode; an anode; a second terminal electrically connected to the cathode; a hermetically sealed case containing the anode, the cathode, and an electrolytic solution surrounding the anode and the cathode; characterized in that the hermetically sealed wet electrolytic capacitor is adapted to discharge-energy stored by the capacitor via the first and second terminals (30, 36).
Composite transition metal compound represented by the following Formula 1: M(OH 1-x) 2-y A y/n wherein M comprises two or more transition metals selected from the group consisting of Ni, Co and Mn; A is PO 4; 0<x<0.5; 0.01≤y≤0.5; and n is an oxidation number of A. M comprises two or more transition metals selected from the group consisting of Ni, Co and Mn; A is PO 4; 0<x<0.5; 0.01≤y≤0.5; and n is an oxidation number of A.