mhurhangee/patent-ind-claim-en huggingface dataset:
A method for activating a UE by a first Mobility Management Entity, MME, in a wireless communication system, the method comprising: receiving a notification message (S12040) notifying of an occurrence of first downlink data transmitted to the user equipment, UE, managed by the first MME from a serving gateway, S-GW; determining whether at least one UE is linked to the UE (S12050) based on first context information of the UE; transmitting, to an eNB, a first paging message for changing the UE into a connected state; and transmitting, to a second MME, an activation message requesting for changing the at least one UE in an idle state into the connected state based on there is the at least one UE linked to the UE, wherein the UE is managed by the first MME and the at least one UE are managed by the second MME, and wherein a plurality of different data related to a specific service are provided to both the UE and the at least one UE which are in the connected state through a plurality of data paths set respectively to the UE and the at least one UE. receiving a notification message (S12040) notifying of an occurrence of first downlink data transmitted to the user equipment, UE, managed by the first MME from a serving gateway, S-GW; determining whether at least one UE is linked to the UE (S12050) based on first context information of the UE; transmitting, to an eNB, a first paging message for changing the UE into a connected state; and transmitting, to a second MME, an activation message requesting for changing the at least one UE in an idle state into the connected state based on there is the at least one UE linked to the UE, wherein the UE is managed by the first MME and the at least one UE are managed by the second MME, and wherein a plurality of different data related to a specific service are provided to both the UE and the at least one UE which are in the connected state through a plurality of data paths set respectively to the UE and the at least one UE.
A method for storing of at least one dataset in a distributed data processing network , wherein the data processing network comprises a plurality of network nodes ; wherein a dataset comprises one or more values and one key; wherein each network node has an address; wherein an address and a key have the same format and are elements of the same data space; wherein each network node maintains a plurality of lists of network nodes, wherein each node in a respective list has an address close to a respective key, wherein close to is determined by a distance metric regarding the respective key and the address of a network node; wherein each network node maintains an internal table of datasets which is indexed by the keys; wherein for storing a value to a dataset an ADD message is send from a specific network node to all network nodes close to the key of the dataset and the ADD message comprises the key of the dataset and the value to be added; wherein when a close network node receives an ADD message and the key is not known to the close network node, a new dataset is created in the internal table of close network node comprising the key and the value; and wherein when a close network node receives an ADD message and the key is known to the close network node the value is added to the one or more values in the dataset of the key in the internal table of the close network. wherein the data processing network comprises a plurality of network nodes ; wherein a dataset comprises one or more values and one key; wherein each network node has an address; wherein an address and a key have the same format and are elements of the same data space; wherein each network node maintains a plurality of lists of network nodes, wherein each node in a respective list has an address close to a respective key, wherein close to is determined by a distance metric regarding the respective key and the address of a network node; wherein each network node maintains an internal table of datasets which is indexed by the keys; wherein for storing a value to a dataset an ADD message is send from a specific network node to all network nodes close to the key of the dataset and the ADD message comprises the key of the dataset and the value to be added; wherein when a close network node receives an ADD message and the key is not known to the close network node, a new dataset is created in the internal table of close network node comprising the key and the value; and wherein when a close network node receives an ADD message and the key is known to the close network node the value is added to the one or more values in the dataset of the key in the internal table of the close network.
A biofragment composition for selectively binding an antigen of interest in a sample, comprising a bioparticle fragment of an initial intact bioparticle, wherein the bioparticle fragment displays at least one heterologous antigen-binding molecule, wherein the bioparticle fragment is not an intact bioparticle, wherein the bioparticle fragment contains less than all of the surface area of the initial intact bioparticle, and wherein the at least one heterologous antigen-binding molecule is capable of specifically binding the antigen of interest.
A valve assembly (5001; 5202; 5302, 5304, 5306, 5308; 5402; 5502, 5504, 5506; 5602) comprising: a housing comprising: an inlet/outlet port (5002; 5406; 5604) structured for fluid communication with at least one fluid component (5008; 5412; 5614) external to the valve assembly; a machine fluid reservoir port (5004; 5408; 5610) structured for fluid communication with at least one fluid reservoir (5010; 5414; 5508A, 5510A, 5512A; 5612) of a machine; and a filter port (5006; 5410) structured for fluid communication with at least one filter (5012; 5508B, 5510B, 5512B; 5416) of the machine; and an actuating mechanism (5014; 5616) operably positioned and structured within the housing: to establish fluid communication between the inlet/outlet port (5002; 5406; 5604) and the machine fluid reservoir port (5004; 5408; 5610) upon application of negative pressure at the inlet/outlet port (5002; 5406; 5604), and to establish fluid communication between the inlet/outlet port (5002; 5406; 5604) and the filter port (5006; 5410) upon application of positive pressure at the inlet/outlet port (5002; 5406; 5604). a housing comprising: an inlet/outlet port (5002; 5406; 5604) structured for fluid communication with at least one fluid component (5008; 5412; 5614) external to the valve assembly; a machine fluid reservoir port (5004; 5408; 5610) structured for fluid communication with at least one fluid reservoir (5010; 5414; 5508A, 5510A, 5512A; 5612) of a machine; and a filter port (5006; 5410) structured for fluid communication with at least one filter (5012; 5508B, 5510B, 5512B; 5416) of the machine; an inlet/outlet port (5002; 5406; 5604) structured for fluid communication with at least one fluid component (5008; 5412; 5614) external to the valve assembly; a machine fluid reservoir port (5004; 5408; 5610) structured for fluid communication with at least one fluid reservoir (5010; 5414; 5508A, 5510A, 5512A; 5612) of a machine; and a filter port (5006; 5410) structured for fluid communication with at least one filter (5012; 5508B, 5510B, 5512B; 5416) of the machine; and an actuating mechanism (5014; 5616) operably positioned and structured within the housing: to establish fluid communication between the inlet/outlet port (5002; 5406; 5604) and the machine fluid reservoir port (5004; 5408; 5610) upon application of negative pressure at the inlet/outlet port (5002; 5406; 5604), and to establish fluid communication between the inlet/outlet port (5002; 5406; 5604) and the filter port (5006; 5410) upon application of positive pressure at the inlet/outlet port (5002; 5406; 5604). to establish fluid communication between the inlet/outlet port (5002; 5406; 5604) and the machine fluid reservoir port (5004; 5408; 5610) upon application of negative pressure at the inlet/outlet port (5002; 5406; 5604), and to establish fluid communication between the inlet/outlet port (5002; 5406; 5604) and the filter port (5006; 5410) upon application of positive pressure at the inlet/outlet port (5002; 5406; 5604).
Abase station apparatus for performing communication with a terminal apparatus , comprising: a carrier sense unit that performs carrier sense to confirm a status of use of a channel using either one of a first threshold and a second threshold; and a transmitting unit that transmits data to the terminal apparatus by using carrier aggregation, using a plurality of channels, wherein the carrier sense unit performs carrier sense using the first threshold in a case where a communication apparatus other than the terminal apparatus that is configured to belong to the base station apparatus is present in the channel trying to perform the carrier sense, and performs the carrier sense using the second threshold in a case where the communication apparatus other than the terminal apparatus that is configured to belong to the base station apparatus is not present therein, the transmitting unit transmits the data after the carrier sense unit has performed a first carrier sense according to a duration that is associated with a contention window in at least one of the plurality of channels, and the second threshold is larger in value than the first threshold. a carrier sense unit that performs carrier sense to confirm a status of use of a channel using either one of a first threshold and a second threshold; and a transmitting unit that transmits data to the terminal apparatus by using carrier aggregation, using a plurality of channels, wherein the carrier sense unit performs carrier sense using the first threshold in a case where a communication apparatus other than the terminal apparatus that is configured to belong to the base station apparatus is present in the channel trying to perform the carrier sense, and performs the carrier sense using the second threshold in a case where the communication apparatus other than the terminal apparatus that is configured to belong to the base station apparatus is not present therein, the transmitting unit transmits the data after the carrier sense unit has performed a first carrier sense according to a duration that is associated with a contention window in at least one of the plurality of channels, and the second threshold is larger in value than the first threshold.
A centrifugal electric pump , of the type comprising a shell for the containment of a set of impellers interleaved with fixed diffusers , and of a motor that drives said impellers to rotate, since they are keyed on a same shaft as said motor , said pump comprising a sealing chamber that is provided between said impellers and said motor and that is extended around said shaft to collect condensation water and water seepage originating from the set of said impellers , said sealing chamber being connected to the outside of said pump by means of at least one water discharge duct , said shell having at least one discharge hole at said at least one discharge duct , said shell comprising a substantially cylindrical portion, which surrounds said impellers , said sealing chamber and said motor , and is constituted by two jackets which are mated on the transverse plane at said discharge hole and two opposite heads for closing the end faces of said cylindrical portion, respectively a first head at the intake and a second head at the delivery of the pump.
A baking paper dispenser, comprising a container with a removal opening and a stack of baking paper sheets stored in said container which are individually removable from the container through the removal opening , characterized in that the stack is stored in the container folded at least two-fold and that the removal opening is arranged adjacent to a convex folding region of the stack such that a baking paper sheet to be removed can be grasped and pulled out of the container through the removal opening .
An interferometric system for spectrally controlled interferometric measurements, comprising: an interferometer with a reference arm, an object arm, and means for combining reference and object beams to produce a combined interference beam; and a spectrally controllable light source capable of spectral modulation of a light beam to generate interference fringes with a modulation peak at a selected location along an optical path of the combined interference beam; characterised by a spectral modulator (M2) being capable of further spectral modulation of the light beam prior to injection into said interferometer , said selected location being controllable as a function of a modulation period applied to said further spectral modulation. an interferometer with a reference arm, an object arm, and means for combining reference and object beams to produce a combined interference beam; and a spectrally controllable light source capable of spectral modulation of a light beam to generate interference fringes with a modulation peak at a selected location along an optical path of the combined interference beam; characterised by a spectral modulator (M2) being capable of further spectral modulation of the light beam prior to injection into said interferometer , said selected location being controllable as a function of a modulation period applied to said further spectral modulation.
A method for the production of 1,2-propanediol in a fermentative process comprising the steps: - culturing a heterotrophic microorganism of the Enterobacteriaceae family genetically modified for the production of 1,2-propanediol in an appropriate culture medium comprising a carbohydrate as source of carbon, and - recovering 1,2-propanediol from said culture medium, wherein in said genetically modified microorganism at least one gene coding for a NADPH dependent acetol reductase is overexpressed, said NADPH dependent acetol reductase being encoded by the adh gene from Clostridium beijerinckii or the adh gene from Thermoanaerobacter brockii, and wherein said genetically modified microorganism further comprises the deletion of the gldA gene coding for a NADH dependent glycerol dehydrogenase and/or the deletion of the yqhD gene coding for a methylglyoxal reductase. - culturing a heterotrophic microorganism of the Enterobacteriaceae family genetically modified for the production of 1,2-propanediol in an appropriate culture medium comprising a carbohydrate as source of carbon, and - recovering 1,2-propanediol from said culture medium, wherein in said genetically modified microorganism at least one gene coding for a NADPH dependent acetol reductase is overexpressed, said NADPH dependent acetol reductase being encoded by the adh gene from Clostridium beijerinckii or the adh gene from Thermoanaerobacter brockii, and wherein said genetically modified microorganism further comprises the deletion of the gldA gene coding for a NADH dependent glycerol dehydrogenase and/or the deletion of the yqhD gene coding for a methylglyoxal reductase.
Supported catalyst that comprises an oxide substrate that is for the most part calcined aluminum and an active phase that comprises nickel, measured by X-ray fluorescence, with the nickel content being between 5 and 65% by weight of said element in relation to the total mass of the catalyst, with said active phase not comprising a metal from group VIB, comprising a content of alumina greater than or equal to 90% and a content of silica as SiO 2 equivalent of at most 10% with respect to the final oxide, optionally completed by silica and/or phosphorus with a total content of at most 10% by weight of an equivalent of SiO 2 and/or P 2 O 5 , the nickel particles having a diameter, determined by X-ray diffraction, that is less than or equal to 20 nm, said catalyst having a median mesopore diameter, measured by mercury intrusion porosimetry, of between 8 nm and 25 nm, a median macropore diameter, measured by mercury intrusion porosimetry, that is greater than 200 nm, a mesopore volume that is measured by mercury porosimetry that is greater than or equal to 0.30 mL/g, a total pore volume that is measured by mercury porosimetry that is greater than or equal to 0.34 mL/g, and a macropore volume of the catalyst is between 10 and 40% of the total pore volume, said mesopore volume, said total pore volume and said macropore volume being measured by mercury intrusion porosimetry according to ASTM standard D4284-83.
A method for providing warning notifications about one or more track workers along a track , the method comprising: - detecting presence of the one or more track workers along the track via a network of detectors (2; 4; 6) coupled to a communications network (28; 46; 58), wherein detecting the presence of the one or more track workers comprises detecting one or more devices on the one or more track workers; and - controlling broadcast of one or more human-perceivable indications across the communications network (28; 46; 58) to one or more broadcast units (16; 18; 26; 30; 32; 36; 44; 50; 52; 54) based on the presence of the track workers. - detecting presence of the one or more track workers along the track via a network of detectors (2; 4; 6) coupled to a communications network (28; 46; 58), wherein detecting the presence of the one or more track workers comprises detecting one or more devices on the one or more track workers; and - controlling broadcast of one or more human-perceivable indications across the communications network (28; 46; 58) to one or more broadcast units (16; 18; 26; 30; 32; 36; 44; 50; 52; 54) based on the presence of the track workers.
Wiper blade device having a wiper blade adapter and having a wiper strip unit , wherein the wiper strip unit has at least one fastening recess which, in at least one operating state, forms a positive fit with the wiper blade adapter , by means of a rest body which is arranged centrally in the fastening recess and which, in a mounted state, forms a positive fit with a central recess of the wiper blade adapter , characterized in that the wiper blade adapter has a longitudinal guide unit which is provided for receiving a carrier element with a positive fit.
Method for encoding at least one image block of an image, characterized in that it comprises: - obtaining a low-spatial-frequency version ( L lf ) of a luminance component of the image block by assigning to each pixel of the image block a mean value computed by averaging the pixel values of the image block, referred to as the obtained luminance component of the image block; - obtaining a quantized luminance component ( L lf,Q ) of the image block by quantizing the obtained luminance component ( L lf ) of the image block; - obtaining a differential luminance component ( L r ) by calculating the difference between the luminance component (L) of the image block and either the quantized luminance component ( L lf,Q ) of the image block or a decoded version L lf , Q ^ of the encoded quantized luminance component of the image block; - encoding the quantized luminance component ( L lf,Q ) of the image block by using a lowest frequency coefficient of a set of frequency coefficients obtained from a block-based spatial-to-frequency transform for encoding the differential luminance component; and - encoding the differential luminance component ( L r ) using the remaining frequency coefficients of said set of frequency coefficients. - obtaining a low-spatial-frequency version ( L lf ) of a luminance component of the image block by assigning to each pixel of the image block a mean value computed by averaging the pixel values of the image block, referred to as the obtained luminance component of the image block; - obtaining a quantized luminance component ( L lf,Q ) of the image block by quantizing the obtained luminance component ( L lf ) of the image block; - obtaining a differential luminance component ( L r ) by calculating the difference between the luminance component (L) of the image block and either the quantized luminance component ( L lf,Q ) of the image block or a decoded version L lf , Q ^ of the encoded quantized luminance component of the image block; - encoding the quantized luminance component ( L lf,Q ) of the image block by using a lowest frequency coefficient of a set of frequency coefficients obtained from a block-based spatial-to-frequency transform for encoding the differential luminance component; and - encoding the differential luminance component ( L r ) using the remaining frequency coefficients of said set of frequency coefficients.
A method of wireless communication performed by a user equipment, UE , comprising: receiving a configuration for a multicast/broadcast radio bearer, MRB in a radio link control, RLC, acknowledged mode; entering an idle state or an inactive state after the MRB has been configured; and maintaining the MRB while the UE is in the idle state or the inactive state, the method characterized in that : the maintaining is subject to one or more limitations associated with maintaining the MRB in the idle state or the inactive state, wherein the one or more limitations cause the UE to refrain from using one or more timers while the UE is in the idle state or the inactive state. receiving a configuration for a multicast/broadcast radio bearer, MRB in a radio link control, RLC, acknowledged mode; entering an idle state or an inactive state after the MRB has been configured; and maintaining the MRB while the UE is in the idle state or the inactive state, the method characterized in that : the maintaining is subject to one or more limitations associated with maintaining the MRB in the idle state or the inactive state, wherein the one or more limitations cause the UE to refrain from using one or more timers while the UE is in the idle state or the inactive state.
An amine compound represented by the following Formula 1: where Ar 1 and Ar 2 are each independently a substituted or unsubstituted aryl group having 6 to 30 ring carbon atoms, or a substituted or unsubstituted heteroaryl group having 2 to 30 ring carbon atoms, Ar 3 is a substituted or unsubstituted aryl group having 6 to 20 ring carbon atoms, and L 1 is a substituted or unsubstituted arylene group having 6 to 30 ring carbon atoms, or a substituted or unsubstituted heteroarylene group having 2 to 30 ring carbon atoms, characterised in that : in cases where Ar 3 is substituted, the substituent is deuterium. where Ar 1 and Ar 2 are each independently a substituted or unsubstituted aryl group having 6 to 30 ring carbon atoms, or a substituted or unsubstituted heteroaryl group having 2 to 30 ring carbon atoms, Ar 3 is a substituted or unsubstituted aryl group having 6 to 20 ring carbon atoms, and L 1 is a substituted or unsubstituted arylene group having 6 to 30 ring carbon atoms, or a substituted or unsubstituted heteroarylene group having 2 to 30 ring carbon atoms, characterised in that : in cases where Ar 3 is substituted, the substituent is deuterium.