mhurhangee/patent-ind-claim-en huggingface dataset:
A balanced valve , comprising: a valve body forming a channel defining a fluid flow path extending from an inlet of the valve body to an outlet of the valve body via a gallery disposed between the inlet and the outlet , the valve body further defining a valve seat and an opening in fluid communication with the gallery ; a valve stem having a first portion and a second portion , the valve stem being at least partially disposed within the opening and the gallery ; a first flow control member coupled to the first portion of the valve stem , the first flow control member being disposed in the gallery , and the first flow control member being adapted to control fluid flow along the fluid flow path of the valve by sealingly engaging the valve seat ; a second flow control member coupled to the second portion of the valve stem , the second flow control member being disposed in the opening of the valve body , wherein a portion of the second flow control member and the valve body define a cavity ; and an integral balancing passage formed within the valve body , the integral balancing passage forming a direct flow passage to fluidly connect the cavity and the outlet of the valve body , characterized in that the balanced valve comprises a post guide member disposed in the gallery , the post guide member extending inwardly from an inner surface of the valve body and including at least one rib member that couple to and support an integral post guide having an opening to accommodate and guide movement of the valve stem and the first flow control member in the gallery . a valve body forming a channel defining a fluid flow path extending from an inlet of the valve body to an outlet of the valve body via a gallery disposed between the inlet and the outlet , the valve body further defining a valve seat and an opening in fluid communication with the gallery ; a valve stem having a first portion and a second portion , the valve stem being at least partially disposed within the opening and the gallery ; a first flow control member coupled to the first portion of the valve stem , the first flow control member being disposed in the gallery , and the first flow control member being adapted to control fluid flow along the fluid flow path of the valve by sealingly engaging the valve seat ; a second flow control member coupled to the second portion of the valve stem , the second flow control member being disposed in the opening of the valve body , wherein a portion of the second flow control member and the valve body define a cavity ; and an integral balancing passage formed within the valve body , the integral balancing passage forming a direct flow passage to fluidly connect the cavity and the outlet of the valve body , characterized in that the balanced valve comprises a post guide member disposed in the gallery , the post guide member extending inwardly from an inner surface of the valve body and including at least one rib member that couple to and support an integral post guide having an opening to accommodate and guide movement of the valve stem and the first flow control member in the gallery .
A tire having, on a tread surface of the tire, five land portions (31 to 35) defined by four circumferential grooves (21 to 24) extending along in a tire circumferential direction and a tread ground contact edge (TEo, TEi), an installation direction of the tire to a vehicle being designated, wherein when the five land portions (31 to 35) are respectively referred to as, sequentially from a vehicle-installed outside (OUT) to a vehicle-installed inside (IN), an outer shoulder land portion , an outermost intermediate land portion as an intermediate land portion, a center intermediate land portion as an intermediate land portion, an innermost intermediate land portion as an intermediate land portion, and an inner shoulder land portion , the intermediate land portions respectively have a communicating sipe extending in a tire width direction to communicate with the circumferential grooves (21 to 24) at both ends in the tire width direction defining the corresponding intermediate land portion , in each of the intermediate land portions , the communicating sipe is constituted by a first sipe at the vehicle-installed outside (OUT) and a second sipe at the vehicle-installed inside (IN), characterized in that in each of the intermediate land portions , the first sipe and the second sipe have an intersection point (P) on the vehicle-installed outside (OUT) of a center line in the tire width direction of the corresponding intermediate land portion , a distance (DP) between the intersection point (P) and a land portion edge at the vehicle-installed inside (IN) of the intermediate land portion is largest in the innermost intermediate land portion of the intermediate land portions , and in each of the intermediate land portions , an angle (θ1) of the first sipe to the tire circumferential direction is larger than an angle (θ2) of the second sipe to the tire circumferential direction.
A wind turbine blade , comprising: a blade main body ; and a leading edge protector including a conductive material, the leading edge protector covering a leading edge of the blade main body , a down conductor disposed in a hollow space enclosed by a skin in the blade main body ; and a conductive mesh member provided along an outer surface of the skin, the wind turbine blade wherein the leading edge protector is electrically connected to the down conductor and the conductive mesh member via a receptor provided on the skin so as to extend from the outer surface along a thickness direction of the skin, the leading edge protector ,the down conductor and the conductive mesh member being disposed at different positions along a thickness direction of the skin. a blade main body ; and a leading edge protector including a conductive material, the leading edge protector covering a leading edge of the blade main body , a down conductor disposed in a hollow space enclosed by a skin in the blade main body ; and a conductive mesh member provided along an outer surface of the skin, the wind turbine blade wherein the leading edge protector is electrically connected to the down conductor and the conductive mesh member via a receptor provided on the skin so as to extend from the outer surface along a thickness direction of the skin, the leading edge protector ,the down conductor and the conductive mesh member being disposed at different positions along a thickness direction of the skin.
A digital microfluidics system for manipulating samples in liquid droplets within disposable cartridges that comprise a bottom layer , a top layer , and a gap between the bottom and top layers ; the digital microfluidics system comprising: (a) a base unit with at least one cartridge accommodation site that is configured for taking up a disposable cartridge ; (b) at least one electrode array substantially extending in a first plane and comprising a number of individual electrodes , said at least one electrode array being supported by a bottom substrate ; and (c) a central control unit for controlling selection of the individual electrodes of said at least one electrode array and for providing these electrodes with individual voltage pulses for manipulating liquid droplets within said cartridges by electrowetting, characterized in that the digital microfluidics system further comprises at least one board accommodation site that is located at one of said cartridge accommodation sites of the base unit ; each board accommodation site being configured to separately and independently from a disposable cartridge take up a swappable electrode board that comprises at least one electrode array substantially extending in a first plane and comprising a number of individual electrodes , said at least one electrode array being supported by a bottom substrate ; in each case, the cartridge and board accommodation sites being located so close to each other that an inserted disposable cartridge operably touches with the bottom layer the surface of the respective inserted swappable electrode board ; each swappable electrode board comprising said electrode array and a number of electrical board contact elements that are electrically connected to the individual electrodes of said electrode array ; each board accommodation site comprising a multitude of electrical base unit contact elements that are electrically connected to said central control unit , the electrical base unit contact elements being configured to engage with the electrical board contact elements of a swappable electrode board that is placed at said board accommodation site for controlling selection of the individual electrodes of said at least one electrode array and for providing these electrodes with individual voltage pulses for manipulating liquid droplets within said cartridges by electrowetting. (a) a base unit with at least one cartridge accommodation site that is configured for taking up a disposable cartridge ; (b) at least one electrode array substantially extending in a first plane and comprising a number of individual electrodes , said at least one electrode array being supported by a bottom substrate ; and (c) a central control unit for controlling selection of the individual electrodes of said at least one electrode array and for providing these electrodes with individual voltage pulses for manipulating liquid droplets within said cartridges by electrowetting,
A two-dimensional code generation method, applied to an electronic device, wherein a secure element is disposed in the electronic device, and the method comprises: obtaining (S21), using the secure element, two-dimensional code generation data stored in the secure element when a two-dimensional code generation request is received, wherein the two-dimensional code generation data comprises account data of a user corresponding to the electronic device and timestamp data of the electronic device; generating digest data corresponding to the two-dimensional code generation data based on the two-dimensional code generation data, wherein the digest data is to-be-signed data; obtaining signature data (S22) by adding a digital signature to the to-be-signed data based on a predetermined signature algorithm stored in the secure element; and generating a target two-dimensional code (S23) based on the two-dimensional code generation data and the signature data. obtaining (S21), using the secure element, two-dimensional code generation data stored in the secure element when a two-dimensional code generation request is received, wherein the two-dimensional code generation data comprises account data of a user corresponding to the electronic device and timestamp data of the electronic device; generating digest data corresponding to the two-dimensional code generation data based on the two-dimensional code generation data, wherein the digest data is to-be-signed data; obtaining signature data (S22) by adding a digital signature to the to-be-signed data based on a predetermined signature algorithm stored in the secure element; and generating a target two-dimensional code (S23) based on the two-dimensional code generation data and the signature data.
A method of wireless communication, said method comprising: at a transmit station being an access point, AP, station, allocating multiple spatial streams to a receive station for an uplink, UL, multiple input, multiple output, MIMO, transmission, the receive station being a non-AP single user station; assigning the multiple spatial streams into a plurality of groups, each group comprising one or more spatial streams; assigning multiple unequal modulation and coding schemes, MCSs, to said multiple spatial streams, wherein each group is associated with a respective MCS; setting a first field of a preamble of a downlink, DL, Physical Layer Convergence Protocol, PLCP, protocol data unit, PPDU; setting multiple user fields in said preamble of said DL PPDU, wherein each of said multiple user fields comprises a station identification, ID, of said receive station in correspondence to a MCS allocated to a respective group of spatial streams; and transmitting said DL PPDU to said receive station ; characterized in that the first field of the preamble of said DL PPDU is set to specify said multiple spatial streams; wherein said DL PPDU comprises a trigger frame operable to trigger said receive station to transmit a trigger-based, TB, PPDU in said UL MIMO transmission to said AP station by using said multiple spatial streams and said multiple unequal MCSs. at a transmit station being an access point, AP, station, allocating multiple spatial streams to a receive station for an uplink, UL, multiple input, multiple output, MIMO, transmission, the receive station being a non-AP single user station; assigning the multiple spatial streams into a plurality of groups, each group comprising one or more spatial streams; assigning multiple unequal modulation and coding schemes, MCSs, to said multiple spatial streams, wherein each group is associated with a respective MCS; setting a first field of a preamble of a downlink, DL, Physical Layer Convergence Protocol, PLCP, protocol data unit, PPDU; setting multiple user fields in said preamble of said DL PPDU, wherein each of said multiple user fields comprises a station identification, ID, of said receive station in correspondence to a MCS allocated to a respective group of spatial streams; and transmitting said DL PPDU to said receive station ; characterized in that the first field of the preamble of said DL PPDU is set to specify said multiple spatial streams; wherein said DL PPDU comprises a trigger frame operable to trigger said receive station to transmit a trigger-based, TB, PPDU in said UL MIMO transmission to said AP station by using said multiple spatial streams and said multiple unequal MCSs.
A mobile terminal comprising: a wireless communication unit configured to wirelessly communicate with at least one other terminal; a display configured to display a first screen layer (S1) corresponding to one of a back screen of the mobile terminal and an execution screen of an application (EA) installed on the mobile terminal, and to display a second screen layer (S2) corresponding to a note function of the mobile terminal; and a controller configured to: control the display to selectively display the second screen layer (S2) based on an input request for requesting the second screen layer (S2), to receive a touch input (F) on the first or second screen layer (S1, S2) and to execute a function corresponding to the received touch input (F) on the first or second screen layer (S1, S2), characterized in that the controller is further configured to, when a call is received while a user inputs a note by the touch input (F) during execution of the note function: execute an application (EA2) signaling the call, display selection buttons (B) on the first layer (S1) to accept and decline the call, and display function icons (AI) for accepting and declining the call on the second layer (S2), wherein the function icons (AI) are displayed separately from selection buttons (B) displayed in the first layer (S1). a wireless communication unit configured to wirelessly communicate with at least one other terminal; a display configured to display a first screen layer (S1) corresponding to one of a back screen of the mobile terminal and an execution screen of an application (EA) installed on the mobile terminal, and to display a second screen layer (S2) corresponding to a note function of the mobile terminal; and a controller configured to: control the display to selectively display the second screen layer (S2) based on an input request for requesting the second screen layer (S2), to receive a touch input (F) on the first or second screen layer (S1, S2) and to execute a function corresponding to the received touch input (F) on the first or second screen layer (S1, S2), characterized in that the controller is further configured to, when a call is received while a user inputs a note by the touch input (F) during execution of the note function: execute an application (EA2) signaling the call, display selection buttons (B) on the first layer (S1) to accept and decline the call, and display function icons (AI) for accepting and declining the call on the second layer (S2), wherein the function icons (AI) are displayed separately from selection buttons (B) displayed in the first layer (S1). execute an application (EA2) signaling the call, display selection buttons (B) on the first layer (S1) to accept and decline the call, and display function icons (AI) for accepting and declining the call on the second layer (S2), wherein the function icons (AI) are displayed separately from selection buttons (B) displayed in the first layer (S1).
A computing system comprising a processor configured to at least: obtain, via at least one sensing system, measurement data associated with at least one chronic inflammation response-related patient biomarker; predict an adhesion complication based on the measurement data associated with the at least one patient biomarker; and generate an output based on the predicted adhesion complication. obtain, via at least one sensing system, measurement data associated with at least one chronic inflammation response-related patient biomarker; predict an adhesion complication based on the measurement data associated with the at least one patient biomarker; and generate an output based on the predicted adhesion complication.
A method to mitigate the consequences of surrounding equipment being damaged by a vapor cloud explosion due to an accidental release of a flammable gas in an open area, comprising : defining an hazardous area wherein an accidental release of flammable gas is likely to happen and storing size data of this hazardous area; receiving a signal from a detector device able to detect the presence of the flammable gas within the hazardous area; upon reception of a signal indicating the presence of the flammable gas within the hazardous area, generating a control signal to activate a release of a flame acceleration suppression product in the hazardous area, at a rate that is determined as a function of the volume of said hazardous area. defining an hazardous area wherein an accidental release of flammable gas is likely to happen and storing size data of this hazardous area; receiving a signal from a detector device able to detect the presence of the flammable gas within the hazardous area; upon reception of a signal indicating the presence of the flammable gas within the hazardous area, generating a control signal to activate a release of a flame acceleration suppression product in the hazardous area, at a rate that is determined as a function of the volume of said hazardous area.
A compound represented by the following Chemical Formula 1, or a pharmaceutically acceptable salt thereof: in Chemical Formula 1, n is 1, or 2, R 1 is hydrogen, or hydroxy, R 1 ' is hydrogen, R 2 is hydroxy, halogen, amino, C 1-4 alkylamino, di(C 1-4 alkyl)amino or C 1-4 alkoxy; R 3 is hydrogen, halogen, C 1-4 alkyl, or C 1-4 haloalkyl; or R 2 and R 3 together form an oxo (=O), hydroxyimino (=N-OH), or C 1-4 alkoxyimino (=N-O-(C1-4 alkyl)); Y is Y1 is N, CH, or CR 4 , wherein R 4 is C 1-4 alkyl, C 1-4 hydroxyalkyl, C 1-4 alkyl substituted with C 1-4 alkoxy, C 1-4 haloalkyl, or -(CH 2 ) m NR 9 R 10 , wherein m is an integer of 1 to 4, and R 9 and R 10 are each independently hydrogen, or C 1-4 alkyl, Y2 is N, or CH, A is benzene, heteroaryl having 1 to 4 nitrogen atoms, or cyclohexene, as a six-membered ring, k is an integer of 0 to 4, and each of Ra is independently C 1-4 alkyl, C 1-4 alkoxy, C 1-4 haloalkyl, C 1-4 haloalkoxy, halogen, cyano, or carboxy. n is 1, or 2, R 1 is hydrogen, or hydroxy, R 1 ' is hydrogen, R 2 is hydroxy, halogen, amino, C 1-4 alkylamino, di(C 1-4 alkyl)amino or C 1-4 alkoxy; R 3 is hydrogen, halogen, C 1-4 alkyl, or C 1-4 haloalkyl; or R 2 and R 3 together form an oxo (=O), hydroxyimino (=N-OH), or C 1-4 alkoxyimino (=N-O-(C1-4 alkyl)); Y is Y1 is N, CH, or CR 4 , wherein R 4 is C 1-4 alkyl, C 1-4 hydroxyalkyl, C 1-4 alkyl substituted with C 1-4 alkoxy, C 1-4 haloalkyl, or -(CH 2 ) m NR 9 R 10 , wherein m is an integer of 1 to 4, and R 9 and R 10 are each independently hydrogen, or C 1-4 alkyl, Y2 is N, or CH, A is benzene, heteroaryl having 1 to 4 nitrogen atoms, or cyclohexene, as a six-membered ring, k is an integer of 0 to 4, and each of Ra is independently C 1-4 alkyl, C 1-4 alkoxy, C 1-4 haloalkyl, C 1-4 haloalkoxy, halogen, cyano, or carboxy.
An anti-RhoB antibody or fragment thereof for use in inhibiting an inflammatory or autoimmune disease in a subject in need thereof, wherein said anti-RhoB antibody or fragment thereof comprises all six CDR domains of anti-RhoB antibody 7F7 or anti-RhoB antibody 9G5, wherein said anti-RhoB antibody 7F7 is a monoclonal antibody comprising SEQ ID NOs: 10 and 12, and said anti-RhoB 9G5 is a monoclonal antibody comprising SEQ ID NOs: 14 and 16, and wherein the light chain of anti-RhoB antibody 7F7 comprises: - CDR1 which has the amino acid sequence RSSQSLVHSNGNTYLH, - CDR2 which has the amino acid sequence KVSNRFS, and - CDR3 which has the amino acid sequence SQSTHVPYTFGGGTKLEIK; and the heavy chain of anti-RhoB antibody 7F7 comprises: - CDR1 which has the amino acid sequence SYYMF, - CDR2 which has the amino acid sequence GFNPTNGGTDFNEKFKS, and - CDR3 which has the amino acid sequence DGNLWGQGTSVTVSS; and the light chain of anti-RhoB antibody 9G5 comprises: - CDR1 which has the amino acid sequence SASSSVSYMH, - CDR2 which has the amino acid sequence DTSNLAS, and - CDR3 which has the amino acid sequence HQRSSYPYTFGGGTKLEIKR; and the heavy chain of anti-RhoB antibody 9G5 comprises: - CDR1 which has the amino acid sequence TYAMN, - CDR2 which has the amino acid sequence RIRSKSNNYATYYADSVKD, and - CDR3 which has the amino acid sequence GGGNLDYWGQGTTLTVSS. the light chain of anti-RhoB antibody 7F7 comprises: - CDR1 which has the amino acid sequence RSSQSLVHSNGNTYLH, - CDR2 which has the amino acid sequence KVSNRFS, and - CDR3 which has the amino acid sequence SQSTHVPYTFGGGTKLEIK; and - CDR1 which has the amino acid sequence RSSQSLVHSNGNTYLH, - CDR2 which has the amino acid sequence KVSNRFS, and - CDR3 which has the amino acid sequence SQSTHVPYTFGGGTKLEIK; and the heavy chain of anti-RhoB antibody 7F7 comprises: - CDR1 which has the amino acid sequence SYYMF, - CDR2 which has the amino acid sequence GFNPTNGGTDFNEKFKS, and - CDR3 which has the amino acid sequence DGNLWGQGTSVTVSS; and - CDR1 which has the amino acid sequence SYYMF, - CDR2 which has the amino acid sequence GFNPTNGGTDFNEKFKS, and - CDR3 which has the amino acid sequence DGNLWGQGTSVTVSS; and the light chain of anti-RhoB antibody 9G5 comprises: - CDR1 which has the amino acid sequence SASSSVSYMH, - CDR2 which has the amino acid sequence DTSNLAS, and - CDR3 which has the amino acid sequence HQRSSYPYTFGGGTKLEIKR; and - CDR1 which has the amino acid sequence SASSSVSYMH, - CDR2 which has the amino acid sequence DTSNLAS, and - CDR3 which has the amino acid sequence HQRSSYPYTFGGGTKLEIKR; and the heavy chain of anti-RhoB antibody 9G5 comprises: - CDR1 which has the amino acid sequence TYAMN, - CDR2 which has the amino acid sequence RIRSKSNNYATYYADSVKD, and - CDR3 which has the amino acid sequence GGGNLDYWGQGTTLTVSS. - CDR1 which has the amino acid sequence TYAMN, - CDR2 which has the amino acid sequence RIRSKSNNYATYYADSVKD, and - CDR3 which has the amino acid sequence GGGNLDYWGQGTTLTVSS.
A sheet comprising exfoliated clay minerals, having a density of 1.6 g/cm 3 or less and a compression ratio of 20% or more, wherein the clay minerals are selected from the following group: mica, montmorillonite, iron montmorillonite, beidellite, saponite, hectorite, stevensite or nontronite, and the sheet comprises 90 wt% or more of the exfoliated clay minerals.