mhurhangee/patent-ind-claim-en huggingface dataset:
A compound of Formula (II), or salt thereof: wherein: n is an integer of 0 or 1; R is selected from the group consisting of halogen, hydroxy, alkyl, alkoxy, and -C(O)-O-alkyl; R 1 is -X-O-Y where X is a -CH 2 - or -CH 2 CH 2 - and Y is a C 1-3 alkyl; R 2 is selected from the group consisting of hydrogen, or methyl; R 3 is a C 1-4 alkyl, R 4 is a C 1-4 alkyl, or R 3 and R 4 are combined to form a ring of 3-7 carbon atoms optionally having one oxygen atom in the ring; and R 5 is -H, -CH 3 , -F, or -OH. n is an integer of 0 or 1; R is selected from the group consisting of halogen, hydroxy, alkyl, alkoxy, and -C(O)-O-alkyl; R 1 is -X-O-Y where X is a -CH 2 - or -CH 2 CH 2 - and Y is a C 1-3 alkyl; R 2 is selected from the group consisting of hydrogen, or methyl; R 3 is a C 1-4 alkyl, R 4 is a C 1-4 alkyl, or R 3 and R 4 are combined to form a ring of 3-7 carbon atoms optionally having one oxygen atom in the ring; and R 5 is -H, -CH 3 , -F, or -OH.
A method for cleaning a rotating surface of a printing press cylinder or a rotating surface of a printing press roller or a rotating surface of a printing plate or transfer form arranged on a printing press cylinder inside a printing unit, comprising the following steps: applying a liquid, water-based detergent , which has at least 60 % water and at least surfactants for the remainder, to the surface to be cleaned within the printing unit; detaching impurities from the surface to be cleaned inside the printing unit with the help of the detergent and a cleaning device ; removing the detached impurities from the surface to be cleaned within the printing unit at least with the help of the cleaning device ; characterized in that the liquid, water-based detergent is applied to the surface to be cleaned with the help of the cleaning device , which is embodied as cleaning brush and which rotates at a speed of between 100 U/min and 500 U/min and which rolls on the surface to be cleaned, wherein, for this purpose, the liquid, water-based detergent is sprayed onto the cleaning brush, which serves for the application of the detergent , at a pressure of between 100 kPa and 500 kPa, and is applied to the surface to be cleaned via the cleaning brush. applying a liquid, water-based detergent , which has at least 60 % water and at least surfactants for the remainder, to the surface to be cleaned within the printing unit; detaching impurities from the surface to be cleaned inside the printing unit with the help of the detergent and a cleaning device ; removing the detached impurities from the surface to be cleaned within the printing unit at least with the help of the cleaning device ; characterized in that the liquid, water-based detergent is applied to the surface to be cleaned with the help of the cleaning device , which is embodied as cleaning brush and which rotates at a speed of between 100 U/min and 500 U/min and which rolls on the surface to be cleaned, wherein, for this purpose, the liquid, water-based detergent is sprayed onto the cleaning brush, which serves for the application of the detergent , at a pressure of between 100 kPa and 500 kPa, and is applied to the surface to be cleaned via the cleaning brush.
A method of knitting a knitted component for an upper of an article of footwear using a flat knitting machine , the upper configured to receive a foot of a wearer, wherein the flat knitting machine includes a first needle bed with a plurality of first needles arranged along a longitudinal axis , and wherein the flat knitting machine includes a second needle bed with a plurality of second needles arranged along the longitudinal axis , characterised by the method comprising: performing a pass of a first and a second feeder along the longitudinal axis relative to the first and second needle beds ; feeding a first yarn with the first feeder and a second yarn with the second feeder during the pass ; forming, during the pass , a plurality of first loops with the first yarn and with the first needles to define a first portion of the knitted component ; forming, during the pass, a plurality of second loops with the second yarn and with the second needles to define a second portion of the knitted component ; interlooping the first yarn and the second yarn during the pass to join the first portion and the second portion at a joined area of the knitted component ; wherein the first portion defines an overfoot member of the upper , the overfoot member configured to cover over the foot of the wearer; and wherein the second portion defines an underfoot member of the upper , the underfoot member configured to extend under the foot of the wearer. performing a pass of a first and a second feeder along the longitudinal axis relative to the first and second needle beds ; feeding a first yarn with the first feeder and a second yarn with the second feeder during the pass ; forming, during the pass , a plurality of first loops with the first yarn and with the first needles to define a first portion of the knitted component ; forming, during the pass, a plurality of second loops with the second yarn and with the second needles to define a second portion of the knitted component ; interlooping the first yarn and the second yarn during the pass to join the first portion and the second portion at a joined area of the knitted component ; wherein the first portion defines an overfoot member of the upper , the overfoot member configured to cover over the foot of the wearer; and wherein the second portion defines an underfoot member of the upper , the underfoot member configured to extend under the foot of the wearer.
An image sensing system (10, 60, A0), comprising, a first pixel circuit , comprising: a photosensitive device (PD); a first transmission gate (TG1), under the control of a first transmission signal (TX1) and configured to conduct during a first conduction time interval to drain photoelectrons stored by the photosensitive device (PD) to a floating diffusion node (FD1); and a collection gate (CG), disposed above the photosensitive device(PD) and configured to receive a collecting signal (CX); and a control unit , coupled to the collection gate (CG) and configured to generate the collecting signal (CX) to the collection gate (CG), wherein when the image sensing system(10, 60, A0) operates in an optical ranging mode, the collecting signal (CX) transits between a first high voltage level(V H1 ) and a low voltage level(V L ), when the image sensing system(10, 60, A0) operates in a general camera mode, the collecting signal(CX) transits between a second high voltage level(V H2 ) and the low voltage level(V L ), wherein the second high voltage level(VH2) is higher than the first high voltage level(V H1 ). a first pixel circuit , comprising: a photosensitive device (PD); a first transmission gate (TG1), under the control of a first transmission signal (TX1) and configured to conduct during a first conduction time interval to drain photoelectrons stored by the photosensitive device (PD) to a floating diffusion node (FD1); and a collection gate (CG), disposed above the photosensitive device(PD) and configured to receive a collecting signal (CX); and a photosensitive device (PD); a first transmission gate (TG1), under the control of a first transmission signal (TX1) and configured to conduct during a first conduction time interval to drain photoelectrons stored by the photosensitive device (PD) to a floating diffusion node (FD1); and a collection gate (CG), disposed above the photosensitive device(PD) and configured to receive a collecting signal (CX); and a control unit , coupled to the collection gate (CG) and configured to generate the collecting signal (CX) to the collection gate (CG), wherein when the image sensing system(10, 60, A0) operates in an optical ranging mode, the collecting signal (CX) transits between a first high voltage level(V H1 ) and a low voltage level(V L ), when the image sensing system(10, 60, A0) operates in a general camera mode, the collecting signal(CX) transits between a second high voltage level(V H2 ) and the low voltage level(V L ), wherein the second high voltage level(VH2) is higher than the first high voltage level(V H1 ).
A method performed by a wireless device for enabling a network node of a radio network to decode contention based uplink transmissions of data in a cell served by the network node , the method comprising: - carrying out registration for contention based uplink transmissions of data on a radio resource with the network node on Radio Resource Control level, where said radio resource is reserved for contention based uplink transmissions of data, - receiving (2:5, 402) an acknowledgement from the network node indicating that the wireless device is registered for contention based uplink transmissions of data in the cell, wherein the acknowledgement comprises an identifier, and - transmitting (2:6, 404), using the identifier, data on the radio resource, thereby enabling the network node to perform blind decoding of the data by considering wireless devices being registered for contention based uplink transmissions of data on the radio resource in the cell. - carrying out registration for contention based uplink transmissions of data on a radio resource with the network node on Radio Resource Control level, where said radio resource is reserved for contention based uplink transmissions of data, - receiving (2:5, 402) an acknowledgement from the network node indicating that the wireless device is registered for contention based uplink transmissions of data in the cell, wherein the acknowledgement comprises an identifier, and - transmitting (2:6, 404), using the identifier, data on the radio resource, thereby enabling the network node to perform blind decoding of the data by considering wireless devices being registered for contention based uplink transmissions of data on the radio resource in the cell.
A method for treating virus, characterized in that , the method comprises: determining virus family information corresponding to virus file behavior scanned by a client, a virus family being a group of malicious virus files having similar behaviors; and issuing a virus removal instruction corresponding to the determined virus family information to the client based on a correlation between the virus family information and the virus removal instruction, for the client to execute the virus removal instruction to remove a virus file; wherein the determining virus family information corresponding to a virus file behavior scanned by a client comprises: receiving a scan log reported by the client, the scan log containing virus file behavior information scanned by the client; and matching the virus file behavior information with a cloud behavior linker script library using a linker script of the virus file behavior information to determine virus family information corresponding to a malicious virus file behavior, wherein the behavior linker script library contains malicious virus file behavior information of the virus family. determining virus family information corresponding to virus file behavior scanned by a client, a virus family being a group of malicious virus files having similar behaviors; and issuing a virus removal instruction corresponding to the determined virus family information to the client based on a correlation between the virus family information and the virus removal instruction, for the client to execute the virus removal instruction to remove a virus file; receiving a scan log reported by the client, the scan log containing virus file behavior information scanned by the client; and matching the virus file behavior information with a cloud behavior linker script library using a linker script of the virus file behavior information to determine virus family information corresponding to a malicious virus file behavior, wherein the behavior linker script library contains malicious virus file behavior information of the virus family.
Device for manufacturing a container by blow moulding or stretch blow moulding from a plastics blank, the device comprising: - a mould comprising two half-moulds which together define an impression (E) of the container to be formed; - a support for each of the half-moulds , each half-mould having a degree of travel with respect to its support ; - means for compensating for a blowing pressure inside the mould ; the compensation means comprising: - at least one sealed chamber interposed between each half-mould and its support ; - means for injecting a pressurized fluid into the sealed chambers ; characterized in that it comprises a mechanism for the referential positioning of one of the half-moulds, referred to as reference half-mould , against at least one referential stop borne by the support of the reference half-mould , the referential stop or stops tending to limit the movement of the reference half-mould towards its support , and means for holding the reference half-mould in abutment against the referential stop or stops while the other of the half-moulds, referred to as second half-mould , is movable under the action of the pressurized fluid. - a mould comprising two half-moulds which together define an impression (E) of the container to be formed; - a support for each of the half-moulds , each half-mould having a degree of travel with respect to its support ; - means for compensating for a blowing pressure inside the mould ; the compensation means comprising: - at least one sealed chamber interposed between each half-mould and its support ; - means for injecting a pressurized fluid into the sealed chambers ; - at least one sealed chamber interposed between each half-mould and its support ; - means for injecting a pressurized fluid into the sealed chambers ; characterized in that it comprises a mechanism for the referential positioning of one of the half-moulds, referred to as reference half-mould , against at least one referential stop borne by the support of the reference half-mould , the referential stop or stops tending to limit the movement of the reference half-mould towards its support , and means for holding the reference half-mould in abutment against the referential stop or stops while the other of the half-moulds, referred to as second half-mould , is movable under the action of the pressurized fluid.
An interruption recovery method for a machine tool machining file for recovering the execution of the machine tool machining file by a machine tool after an interruption of data transmission between the machine tool and an external memory with respect to the machine tool, wherein the machine tool file is stored in the external memory and wherein the machining tool reads a program of the machine tool file from the external memory during the execution of a machining operation, comprising the following steps: generating (S1) first check information for the machine tool machining file before an interruption of data transmission occurs; generating (S2) second check information for the machine tool machine file after the data transmission interruption occurs; comparing (S3) the first check information and the second check information to determine whether the machine tool machining file is changed before and after the data transmission interruption (S3); and recovering (S4) the execution of the machine tool machining file when the first check information matches the second check information. generating (S1) first check information for the machine tool machining file before an interruption of data transmission occurs; generating (S2) second check information for the machine tool machine file after the data transmission interruption occurs; comparing (S3) the first check information and the second check information to determine whether the machine tool machining file is changed before and after the data transmission interruption (S3); and recovering (S4) the execution of the machine tool machining file when the first check information matches the second check information.
A nosecone , comprising: a ring including an angled surface ; a nosecone tip ; a double-walled shroud portion including inner and outer dome elements , a first end that interfaces with and is constrained by the nosecone tip and a second end that is connectable to the ring to define with the angled surface a sliding, resistive interface ; and a shim disposable in the double walled shroud portion to pre-load the sliding, resistive interface and to provide for separation distance between the inner and outer dome elements. a ring including an angled surface ; a nosecone tip ; a double-walled shroud portion including inner and outer dome elements , a first end that interfaces with and is constrained by the nosecone tip and a second end that is connectable to the ring to define with the angled surface a sliding, resistive interface ; and a shim disposable in the double walled shroud portion to pre-load the sliding, resistive interface and to provide for separation distance between the inner and outer dome elements.
System comprised of a container and a dispenser for the container , wherein the container comprises a reservoir and one mixing tube , wherein - the reservoir contains two viscous materials ; - the mixing tube comprises a sleeve comprised of two films of polymeric materials joined by one adhesive or seal seam ; - the mixing tube contains a shield with m apertures with 4 ≤ m ≤ 160; characterized in that the dispenser comprises one static mixer configured to accomodate the mixing tube of the container , the static mixer comprising a first mixer part with a first channel and a second mixer part with a second channel , the first and second mixer part shaped in such manner, that the mixing tube and a therein contained shield are form-fit mateable to the first and second mixer part and the first and second channel are meander-shaped. - the reservoir contains two viscous materials ; - the mixing tube comprises a sleeve comprised of two films of polymeric materials joined by one adhesive or seal seam ; - the mixing tube contains a shield with m apertures with 4 ≤ m ≤ 160; characterized in that
A consumable electrode arc welding method using a shielding gas containing argon, comprising: setting a first welding condition in which a first welding current is supplied to a welding wire ; and setting a second welding condition in which a second welding current is supplied to a welding wire , characterised in that the first welding condition and the second welding condition are welding conditions in which a reference current of the welding current is 350 A or higher and a current variation range is from 50 A to 150 A, and the first welding condition and the second welding condition are switched at a cycle of a frequency ranging from 1 Hz to 5 Hz. setting a first welding condition in which a first welding current is supplied to a welding wire ; and setting a second welding condition in which a second welding current is supplied to a welding wire , characterised in that the first welding condition and the second welding condition are welding conditions in which a reference current of the welding current is 350 A or higher and a current variation range is from 50 A to 150 A, and the first welding condition and the second welding condition are switched at a cycle of a frequency ranging from 1 Hz to 5 Hz.
A resource allocation method, applied to a receive side device , wherein the resource allocation method comprises: receiving (S110) resource configuration information from a transmit side device , wherein the resource configuration information is used by the receive side device to determine a configured resource that needs to be canceled, and the receive side device no longer uses the resource that needs to be canceled for information transmission; wherein the resource that needs to be canceled is a configured resource of the receive side device that is canceled; and characterized by the resource configuration information comprises at least one of the following information: information used to indicate a quantity of configured resources of the receive side device that are canceled; information used to indicate a quantity of symbols or a quantity of slots occupied by a configured resource of the receive side device that is canceled; and information used to indicate a bandwidth part, BWP, or a carrier of a symbol occupied by a configured resource of the receive side device that is canceled. receiving (S110) resource configuration information from a transmit side device , wherein the resource configuration information is used by the receive side device to determine a configured resource that needs to be canceled, and the receive side device no longer uses the resource that needs to be canceled for information transmission; wherein the resource that needs to be canceled is a configured resource of the receive side device that is canceled; and characterized by the resource configuration information comprises at least one of the following information: information used to indicate a quantity of configured resources of the receive side device that are canceled; information used to indicate a quantity of symbols or a quantity of slots occupied by a configured resource of the receive side device that is canceled; and information used to indicate a bandwidth part, BWP, or a carrier of a symbol occupied by a configured resource of the receive side device that is canceled. information used to indicate a quantity of configured resources of the receive side device that are canceled; information used to indicate a quantity of symbols or a quantity of slots occupied by a configured resource of the receive side device that is canceled; and information used to indicate a bandwidth part, BWP, or a carrier of a symbol occupied by a configured resource of the receive side device that is canceled.
A fuel composition for a fuel injected diesel engine comprising greater than 50 wt.% of fuel and an additive concentrate, wherein the additive concentrate comprises: an organic nitrate ignition accelerator; and a reaction product of (i) a hydrocarbyl substituted compound containing at least one tertiary amino group, wherein the hydrocarbyl substituted compound containing at least one tertiary amino group is selected from a C 10 -C 30 -alkyl or alkenyl-substituted amidopropyldimethylamine, and a C 12 -C 200 -alkyl or alkenyl-substituted succinic-carbonyldimethylamine and (ii) a halogen substituted C 2 -C 8 carboxylic acid, or salt thereof, wherein the reaction product as made comprises less than 5 wt% of a combination of free anion species and ionically bound anion species; and the fuel composition comprises from 5 to 500 ppm by weight based on a total weight of the fuel of a reaction product of (i) and (ii). an organic nitrate ignition accelerator; and a reaction product of (i) a hydrocarbyl substituted compound containing at least one tertiary amino group, wherein the hydrocarbyl substituted compound containing at least one tertiary amino group is selected from a C 10 -C 30 -alkyl or alkenyl-substituted amidopropyldimethylamine, and a C 12 -C 200 -alkyl or alkenyl-substituted succinic-carbonyldimethylamine and (ii) a halogen substituted C 2 -C 8 carboxylic acid, or salt thereof, wherein the reaction product as made comprises less than 5 wt% of a combination of free anion species and ionically bound anion species; (i) a hydrocarbyl substituted compound containing at least one tertiary amino group, wherein the hydrocarbyl substituted compound containing at least one tertiary amino group is selected from a C 10 -C 30 -alkyl or alkenyl-substituted amidopropyldimethylamine, and a C 12 -C 200 -alkyl or alkenyl-substituted succinic-carbonyldimethylamine and (ii) a halogen substituted C 2 -C 8 carboxylic acid, or salt thereof, wherein the reaction product as made comprises less than 5 wt% of a combination of free anion species and ionically bound anion species; and the fuel composition comprises from 5 to 500 ppm by weight based on a total weight of the fuel of a reaction product of (i) and (ii).