mhurhangee/patent-ind-claim-en huggingface dataset:
A secondary battery pack connection control method for controlling connection of input and output terminals of a secondary battery pack system in a power storage system provided with a plurality of secondary battery packs which are arranged in parallel, said method characterized by comprising the steps of: starting discharge while controlling current from a first secondary battery pack that is to be newly connected; and turning OFF a charging path of a second secondary battery pack that is to be disconnected and in which voltage is lower than in said first secondary battery pack ;, wherein: a discharging path of said first secondary battery pack is turned ON at the same time that the charging path of said second secondary battery pack is turned OFF; and a discharging path of said second secondary battery pack is turned OFF. starting discharge while controlling current from a first secondary battery pack that is to be newly connected; and turning OFF a charging path of a second secondary battery pack that is to be disconnected and in which voltage is lower than in said first secondary battery pack ;, wherein: a discharging path of said first secondary battery pack is turned ON at the same time that the charging path of said second secondary battery pack is turned OFF; and a discharging path of said second secondary battery pack is turned OFF. a discharging path of said first secondary battery pack is turned ON at the same time that the charging path of said second secondary battery pack is turned OFF; and a discharging path of said second secondary battery pack is turned OFF.
A method for wireless communication by a user equipment, UE, the method comprising: receiving, from a base station via at least one of semi-static Radio Resource Control, RRC, signaling or Physical Downlink Control Channel, PDCCH, dynamic signaling, information regarding a tone mapping pattern for an uplink control channel, wherein said information includes information on at least one of pilot density, or pilot location in the frequency domain; determining , based on the tone mapping pattern, resources assigned for transmitting the uplink control channel, wherein the tone mapping pattern comprises a plurality of tones in the frequency domain and no more than one symbol or no more than a portion of a symbol in the time domain; and transmitting , to the base station, the uplink control channel using the assigned resources of the tone mapping pattern. receiving, from a base station via at least one of semi-static Radio Resource Control, RRC, signaling or Physical Downlink Control Channel, PDCCH, dynamic signaling, information regarding a tone mapping pattern for an uplink control channel, wherein said information includes information on at least one of pilot density, or pilot location in the frequency domain; determining , based on the tone mapping pattern, resources assigned for transmitting the uplink control channel, wherein the tone mapping pattern comprises a plurality of tones in the frequency domain and no more than one symbol or no more than a portion of a symbol in the time domain; and transmitting , to the base station, the uplink control channel using the assigned resources of the tone mapping pattern.
An organic electronic device comprising an anode layer , a cathode layer and at least one organic semiconductor layer, wherein the at least one organic semiconductor layer is arranged between the anode layer and the cathode layer ; and characterized in that the at least one organic semiconductor layer comprises a compound of formula (I) whereby A 1 is selected from formula (II) whereby R 1 is selected from partially or perfluorinated C 1 to C 6 alkyl or CN, R 2 is selected partially or perfluorinated C 1 to C 6 alkyl, X 1 is selected from CH or N; X 2 and X 3 are independently selected from CH, CF or N; wherein at least one of X 1 , X 2 and X 3 is selected from CH; and A 1 is linked to the cyclopropene core via the atom marked as "*"; R 3 is selected from CN, and A 2 and A 3 are independently selected from formula (III), wherein Ar is independently selected from substituted or unsubstituted C 6 to C 18 aryl and substituted or unsubstituted C 2 to C 18 heteroaryl, wherein the substituents on Ar are independently selected from CN, partially or perfluorinated C 1 to C 6 alkyl, halogen, F. the at least one organic semiconductor layer comprises a compound of formula (I) whereby A 1 is selected from formula (II) whereby R 1 is selected from partially or perfluorinated C 1 to C 6 alkyl or CN, R 2 is selected partially or perfluorinated C 1 to C 6 alkyl, X 1 is selected from CH or N; X 2 and X 3 are independently selected from CH, CF or N; wherein at least one of X 1 , X 2 and X 3 is selected from CH; and A 1 is linked to the cyclopropene core via the atom marked as "*"; R 3 is selected from CN, and A 2 and A 3 are independently selected from formula (III), wherein Ar is independently selected from substituted or unsubstituted C 6 to C 18 aryl and substituted or unsubstituted C 2 to C 18 heteroaryl, wherein the substituents on Ar are independently selected from CN, partially or perfluorinated C 1 to C 6 alkyl, halogen, F.
An encoder comprising: a processor; and a memory, the memory including code as instructions that cause the processor to: receive geometric data and a viewpoint associated with the geometric data, quantize the geometric data based on the viewpoint using a plurality of view-dependent quantization values each having a quantized distance based on a distance z to the viewpoint, characterised in that quantizing comprises transforming the distance z to z'= 1/(z+d) for any d > 0. a processor; and a memory, the memory including code as instructions that cause the processor to: receive geometric data and a viewpoint associated with the geometric data, quantize the geometric data based on the viewpoint using a plurality of view-dependent quantization values each having a quantized distance based on a distance z to the viewpoint, characterised in that quantizing comprises transforming the distance z to z'= 1/(z+d) for any d > 0. receive geometric data and a viewpoint associated with the geometric data, quantize the geometric data based on the viewpoint using a plurality of view-dependent quantization values each having a quantized distance based on a distance z to the viewpoint, characterised in that quantizing comprises transforming the distance z to z'= 1/(z+d) for any d > 0.
A vehicle comprising: a fender unit which covers an upper portion of a rear wheel from above; and a mounting member including a mounting section by which an accessory component is detachably mountable to a vehicle body, wherein the fender unit includes: a body cover member which covers the upper portion of the rear wheel from above and a side, a first cover member which has an opening through which the mounting section of the mounting member is exposed, and covers a portion of the mounting member which is other than the mounting section, from outside in a vehicle width direction; and a second cover member which is detachably mounted to the first cover member and covers the opening, wherein the mounting member is placed inward in the vehicle width direction relative to the first cover member and the second cover member , characterized in that the mounting member , the first cover member and the second cover member are placed outward in the vehicle width direction relative to the body cover member . a fender unit which covers an upper portion of a rear wheel from above; and a mounting member including a mounting section by which an accessory component is detachably mountable to a vehicle body, wherein the fender unit includes: a body cover member which covers the upper portion of the rear wheel from above and a side, a first cover member which has an opening through which the mounting section of the mounting member is exposed, and covers a portion of the mounting member which is other than the mounting section, from outside in a vehicle width direction; and a second cover member which is detachably mounted to the first cover member and covers the opening, wherein the mounting member is placed inward in the vehicle width direction relative to the first cover member and the second cover member , characterized in that the mounting member , the first cover member and the second cover member are placed outward in the vehicle width direction relative to the body cover member . a body cover member which covers the upper portion of the rear wheel from above and a side, a first cover member which has an opening through which the mounting section of the mounting member is exposed, and covers a portion of the mounting member which is other than the mounting section, from outside in a vehicle width direction; and a second cover member which is detachably mounted to the first cover member and covers the opening, wherein the mounting member is placed inward in the vehicle width direction relative to the first cover member and the second cover member , characterized in that the mounting member , the first cover member and the second cover member are placed outward in the vehicle width direction relative to the body cover member .
An indoor unit of an air conditioner, comprising an air duct, an air outlet in communication with the air duct, and an air deflector for guiding the direction of air outflow of the air conditioner, with a volute tongue being provided at an end of the air duct proximately to the air outlet wherein the indoor unit of the air conditioner further comprises an air deflector opening and closing mechanism in drive connection with the air deflector which is rotatably provided at the outer side of the air outlet, and the air deflector opening and closing mechanism comprises a left push-out device located at a left support end of the air deflector and a right push-out device located at a right support end of the air deflector , and the left push-out device and the right push-out device have a first end fixed to a housing of the air conditioner and a second end in drive connection with the air deflector , respectively, and the left push-out device comprises a first pushing motor , a left gear in drive connection with the first pushing motor , and a left rack connecting rod in engagement with the left gear and in drive connection with the air deflector , and characterized in that the left push-out device further comprises a rotation driving motor fixedly connected to the left rack connecting rod , and an output shaft of the rotation driving motor is fixedly connected to the left support end of the air deflector . the indoor unit of the air conditioner further comprises an air deflector opening and closing mechanism in drive connection with the air deflector which is rotatably provided at the outer side of the air outlet, and the air deflector opening and closing mechanism comprises a left push-out device located at a left support end of the air deflector and a right push-out device located at a right support end of the air deflector , and the left push-out device and the right push-out device have a first end fixed to a housing of the air conditioner and a second end in drive connection with the air deflector , respectively, and the left push-out device comprises a first pushing motor , a left gear in drive connection with the first pushing motor , and a left rack connecting rod in engagement with the left gear and in drive connection with the air deflector , and
An engine controlling apparatus for controlling a cylinder injected volume (F DI ) of fuel injected from a cylinder injection valve of an engine into a cylinder and a port injected volume (F MPI ) of fuel injected from a port injection valve of the engine into an intake port of the cylinder, the engine controlling apparatus characterized by comprising: an adhesion volume calculator to calculate a cylinder adhesion volume (R C ) of fuel adhering to the cylinder, the fuel being injected from the cylinder injection valve , and a port adhesion volume (R V + R W ) of fuel adhering to the intake port, the fuel being injected from the port injection valve ; an evaporation volume calculator to calculate a cylinder evaporated volume of fuel evaporated from the fuel (R C ) adhering to the cylinder and a port evaporated volume of fuel evaporated from the fuel (R V + R W ) adhering to the intake port; a required volume calculator to calculate a required port-inj ected volume of fuel (QF MPI ) required to be injected from the port injection valve and a required cylinder-injected volume of fuel (QF DI ) required to be injected from the cylinder injection valve ; and a controller to control the cylinder injected volume (F DI ) and the port injected volume (F MPI ), based on both the cylinder evaporated volume (Z×R C ) and the port evaporated volume (x×R V +Y×R W ), characterised in that the controller : controls the port injected volume (F MPI ) based on a difference (QF MpI - (Z×R C )) calculated through subtraction of the cylinder evaporated volume from the required port-injected volume. an adhesion volume calculator to calculate a cylinder adhesion volume (R C ) of fuel adhering to the cylinder, the fuel being injected from the cylinder injection valve , and a port adhesion volume (R V + R W ) of fuel adhering to the intake port, the fuel being injected from the port injection valve ; an evaporation volume calculator to calculate a cylinder evaporated volume of fuel evaporated from the fuel (R C ) adhering to the cylinder and a port evaporated volume of fuel evaporated from the fuel (R V + R W ) adhering to the intake port; a required volume calculator to calculate a required port-inj ected volume of fuel (QF MPI ) required to be injected from the port injection valve and a required cylinder-injected volume of fuel (QF DI ) required to be injected from the cylinder injection valve ; and a controller to control the cylinder injected volume (F DI ) and the port injected volume (F MPI ), based on both the cylinder evaporated volume (Z×R C ) and the port evaporated volume (x×R V +Y×R W ), characterised in that the controller : controls the port injected volume (F MPI ) based on a difference (QF MpI - (Z×R C )) calculated through subtraction of the cylinder evaporated volume from the required port-injected volume.
An aortic protection device comprising: a heart-proximal ring ; and a mesh lumen shaped and sized to extend along the aorta , from a heart-side of a brachiocephalic artery exit from the aorta to distal of a left subclavian artery exit from the aorta, characterized by : the mesh lumen is arranged to change a porosity of mesh pores in response to external control, and the heart-proximal ring is attached to a heart-proximal end of the mesh lumen . a heart-proximal ring ; and a mesh lumen shaped and sized to extend along the aorta , from a heart-side of a brachiocephalic artery exit from the aorta to distal of a left subclavian artery exit from the aorta, characterized by : the mesh lumen is arranged to change a porosity of mesh pores in response to external control, and the heart-proximal ring is attached to a heart-proximal end of the mesh lumen . the mesh lumen is arranged to change a porosity of mesh pores in response to external control, and the heart-proximal ring is attached to a heart-proximal end of the mesh lumen .
Soft-sealing, concentric butterfly valve for mounting between two couplings in a pipe system, the butterfly valve comprising: a valve housing with a through running boring , in which a rotary damper , mounted to a spindle , is arranged standing in a circular-cylindrical valve seat , said valve seat being equipped internally with conical contact surfaces for the damper , the valve housing comprises on a first side , a coupling end piece cast in one piece with the valve housing and equipped with an external circular groove for connection with a first of said couplings in the pipe system, the valve housing comprises on a second side several threaded bolt holes arranged radially around the through running boring , and a removable coupling part , said removable coupling part being fastened to the valve housing by bolts inserted in the threaded bolt holes , said removable coupling part comprises a second coupling end piece equipped with an external circular groove for connection with a second of said couplings in the pipe system, and said valve seat is compressed between the valve housing and the removable coupling part and surrounds the damper to provide a leak proof connection. a valve housing with a through running boring , in which a rotary damper , mounted to a spindle , is arranged standing in a circular-cylindrical valve seat , said valve seat being equipped internally with conical contact surfaces for the damper , the valve housing comprises on a first side , a coupling end piece cast in one piece with the valve housing and equipped with an external circular groove for connection with a first of said couplings in the pipe system, the valve housing comprises on a second side several threaded bolt holes arranged radially around the through running boring , and a removable coupling part , said removable coupling part being fastened to the valve housing by bolts inserted in the threaded bolt holes , said removable coupling part comprises a second coupling end piece equipped with an external circular groove for connection with a second of said couplings in the pipe system, and said valve seat is compressed between the valve housing and the removable coupling part and surrounds the damper to provide a leak proof connection.
A modular additive manufacturing system for simultaneously building three-dimensional parts in successively bonded layers, the system comprising: a plurality of build assemblies laid out along at least one direction of a manufacturing path, at least one build assembly being functioning to build a three-dimensional part from build material layered on a build area according to build instructions; a guidable module repeatedly performing at least one step necessary to build the three-dimensional part on each functioning build assembly along the manufacturing path; and a guiding assembly operatively connected to the guidable module to guide the module along the manufacturing path at a distance with respect to the build assemblies , thereby enabling successive layering and bonding of the build material on each functioning build assembly ; wherein the guidable module is a bonding module which is guided by the guiding assembly and periodically performs bonding of the layer of build material on each functioning build area to form a bonded layer; and wherein each build assembly comprises a layer deposition device being triggerable, after bonding of the layer of build material by the bonding module , to perform deposition of a new layer of material; characterized in that the manufacturing path defines a loop. a plurality of build assemblies laid out along at least one direction of a manufacturing path, at least one build assembly being functioning to build a three-dimensional part from build material layered on a build area according to build instructions; a guidable module repeatedly performing at least one step necessary to build the three-dimensional part on each functioning build assembly along the manufacturing path; and a guiding assembly operatively connected to the guidable module to guide the module along the manufacturing path at a distance with respect to the build assemblies , thereby enabling successive layering and bonding of the build material on each functioning build assembly ;
A cleaning implement comprising melamine-formaldehyde foam characterized in that the melamine-formaldehyde foam has a d90/d10 ratio above 1.65 and a compression deflection force above 22.41 kPa.
A refrigerator , comprising: a storing compartment for accommodating an object to be frozen, the upper portion of the storing compartment is separated by a partition member ; a cooler for cooling air supplied to the storing compartment ; a cooling compartment for accommodating the cooler ; a supply air duct disposed at the back side of the storing compartment and for flowing the air cooled by the cooler from the cooling compartment to the supply air duct by a blower ; a first supply air duct disposed between the partition member and the heat insulation partition wall above the storing compartment , wherein the cold air supplied from the supply air duct to the storing compartment passes through the first supply air duct during normal cooling operation; and a second supply air duct disposed between the partition member and the heat insulation partition wall above the storing compartment and disposed separately from the first supply air duct , a front end portion of the second supply air duct extends above a shelf on which the object to be frozen is placed, wherein the cold air supplied from the supply air duct and blown toward the object to be frozen passes through the second supply air duct during rapid cooling operation; and a blower for rapid freezing provided at the intersection between the rear end of the second supply air duct and the supply air duct and disposed at a rearward position compared with the rear end portion of the storing compartment , wherein the blower is used for blowing cold air to the second supply air duct during rapid cooling operation. a storing compartment for accommodating an object to be frozen, the upper portion of the storing compartment is separated by a partition member ; a cooler for cooling air supplied to the storing compartment ; a cooling compartment for accommodating the cooler ; a supply air duct disposed at the back side of the storing compartment and for flowing the air cooled by the cooler from the cooling compartment to the supply air duct by a blower ; a first supply air duct disposed between the partition member and the heat insulation partition wall above the storing compartment , wherein the cold air supplied from the supply air duct to the storing compartment passes through the first supply air duct during normal cooling operation; and a second supply air duct disposed between the partition member and the heat insulation partition wall above the storing compartment and disposed separately from the first supply air duct , a front end portion of the second supply air duct extends above a shelf on which the object to be frozen is placed, wherein the cold air supplied from the supply air duct and blown toward the object to be frozen passes through the second supply air duct during rapid cooling operation; and a blower for rapid freezing provided at the intersection between the rear end of the second supply air duct and the supply air duct and disposed at a rearward position compared with the rear end portion of the storing compartment , wherein the blower is used for blowing cold air to the second supply air duct during rapid cooling operation.
A solar radiation shielding member, wherein a first dielectric film, a first metal film, a second dielectric film, a second metal film, a third dielectric film, a third metal film, and a fourth dielectric film are stacked in this order on a transparent substrate, wherein the first dielectric film comprises at least two dielectric layers containing a layer having a refractive index of 2.4 or greater, and the first dielectric film as a whole has a refractive index in a range of 1.8-2.0, wherein the second dielectric film has an optical film thickness of 165-201 nm, wherein the third dielectric film has an optical film thickness of 147-182 nm, wherein the fourth dielectric film has an optical film thickness of 75-120 nm, wherein a geometric film thickness of the first metal film, the second metal film, and the third metal film is 30-40 nm in total, wherein a geometric film thickness of the second metal film is in a range of 1.01-1.55 relative to a geometric film thickness of each of the first metal film and the third metal film.