mhurhangee/ep-ind-claims huggingface dataset:
An upright vacuum cleaner, comprising: a brushroll assembly comprising a brushroll casing and a brushroll disposed in the brushroll casing, the brushroll casing having a dust suction port and defining a brushroll air-suction channel communicated with the dust suction port; a motor assembly comprising a motor housing and a motor disposed in the motor housing, the motor housing having an air exhaust hole, a dirty air outlet and a clean air inlet, and defining a motor air-suction channel and a motor air-exhaust channel, the motor air-suction channel being communicated between the brushroll air-suction channel and the dirty air outlet; and a body assembly comprising a body and a dirt cup mounted to the body, the dirt cup having a separating chamber communicated with the dirty air outlet and the clean air inlet respectively; characterized in that, the motor air-exhaust channel being communicated between the clean air inlet and the air exhaust hole. a brushroll assembly comprising a brushroll casing and a brushroll disposed in the brushroll casing, the brushroll casing having a dust suction port and defining a brushroll air-suction channel communicated with the dust suction port; a motor assembly comprising a motor housing and a motor disposed in the motor housing, the motor housing having an air exhaust hole, a dirty air outlet and a clean air inlet, and defining a motor air-suction channel and a motor air-exhaust channel, the motor air-suction channel being communicated between the brushroll air-suction channel and the dirty air outlet; and a body assembly comprising a body and a dirt cup mounted to the body, the dirt cup having a separating chamber communicated with the dirty air outlet and the clean air inlet respectively; characterized in that, the motor air-exhaust channel being communicated between the clean air inlet and the air exhaust hole.
A power tool comprising: a housing having a handle configured to be grasped by a user; a motor supported by the housing; a driving gear rotated by the motor; a first driven gear engaging the driving gear to be rotated by the driving gear about a rotation axis; a second driven gear facing the first driven gear and engaging the driving gear to be rotated by the driving gear about the rotation axis, the second driven gear defining a channel; a pin extending from the first driven gear and offset from the rotation axis, the pin having an end received in the channel of the second driven gear; and a spindle having a yoke coupled to the pin to translate rotation of the first and second driven gears (108, 112) into reciprocating motion of the spindle. a housing having a handle configured to be grasped by a user; a motor supported by the housing; a driving gear rotated by the motor; a first driven gear engaging the driving gear to be rotated by the driving gear about a rotation axis; a second driven gear facing the first driven gear and engaging the driving gear to be rotated by the driving gear about the rotation axis, the second driven gear defining a channel; a pin extending from the first driven gear and offset from the rotation axis, the pin having an end received in the channel of the second driven gear; and a spindle having a yoke coupled to the pin to translate rotation of the first and second driven gears (108, 112) into reciprocating motion of the spindle.
A monoclonal antibody which binds human c-Met, wherein the antibody comprises a VH region comprising the sequence of SEQ ID NO:57 and a VL region comprising the sequence of SEQ ID NO:61.
A method for wired communication, the method comprising: reducing a communication rate by a device, said device utilizing an asymmetric multi-rate physical, PHY, layer standard to perform said wired communication in an extended reach Ethernet local area network, LAN, from a higher communication rate to a lower communication rate to provide signals at said lower communication rate; and applying, to the signals provided at said lower communication rate, higher communication rate PHY layer signal processing operations supported by said device utilizing said asymmetric multi-rate PHY layer standard, wherein said higher communication rate PHY layer signal processing operations comprise at least one of an ECHO cancellation operation, a near-end crosstalk, NEXT, cancellation operation, and a far-end crosstalk, FEXT, cancellation operations. reducing a communication rate by a device, said device utilizing an asymmetric multi-rate physical, PHY, layer standard to perform said wired communication in an extended reach Ethernet local area network, LAN, from a higher communication rate to a lower communication rate to provide signals at said lower communication rate; and applying, to the signals provided at said lower communication rate, higher communication rate PHY layer signal processing operations supported by said device utilizing said asymmetric multi-rate PHY layer standard, wherein said higher communication rate PHY layer signal processing operations comprise at least one of an ECHO cancellation operation, a near-end crosstalk, NEXT, cancellation operation, and a far-end crosstalk, FEXT, cancellation operations.
An authenticated data sharing system comprising: a contactless card (105, 200) comprising a processor (102, 230) and a memory including one or more applets (106, 240); and an application comprising instructions for execution on a device; wherein the application is configured to determine a capability associated with the contactless card (105, 200) after a first entry into a communication field, wherein the application is configured to request additional information based on the determination, wherein the one or more applets (106, 240) are configured to transmit, to the application, a generated tokenized link after a second entry into the communication field based on the requested additional information, and wherein the application is configured to transmit the tokenized link to obtain the requested additional information. a contactless card (105, 200) comprising a processor (102, 230) and a memory including one or more applets (106, 240); and an application comprising instructions for execution on a device; wherein the application is configured to determine a capability associated with the contactless card (105, 200) after a first entry into a communication field, wherein the application is configured to request additional information based on the determination, wherein the one or more applets (106, 240) are configured to transmit, to the application, a generated tokenized link after a second entry into the communication field based on the requested additional information, and wherein the application is configured to transmit the tokenized link to obtain the requested additional information.
A compound, including salts, of the Formula: wherein: R 1a, R 1b, R 1c, R 2a, R 2b, R 3a, R 3b, R 5a, R 5b, R 6a, and R 6b, are, independently, H, optionally substituted C1-C6 alkyl, or R 2a and R 2b, R 3a and R 3b, or R 5a and R 5b, may cooperate to form a cycloalkyl; and R 4a and R 4b are each -CH 2 CH CH 2 OH, or R 4a is -(CH 2) 3 CH 3 and R 4b is - CH 2 CH 2 OH, provided that at least one of R 4a, R 4b, R 5a, R 5b, R 6a, and R 6b is C1-C6 alkyl substituted with at least one hydroxy group or amino group wherein the term "optionally substituted" means that the groups in question are either unsubstituted or substituted with one or more groups, radicals or moieties, selected from halogen, hydroxy, amino or carboxy, and "amino" includes amino further substituted with C1-C3alkyl. R 1a, R 1b, R 1c, R 2a, R 2b, R 3a, R 3b, R 5a, R 5b, R 6a, and R 6b, are, independently, H, optionally substituted C1-C6 alkyl, or R 2a and R 2b, R 3a and R 3b, or R 5a and R 5b, may cooperate to form a cycloalkyl; and R 4a and R 4b are each -CH 2 CH CH 2 OH, or R 4a is -(CH 2) 3 CH 3 and R 4b is - CH 2 CH 2 OH, provided that at least one of R 4a, R 4b, R 5a, R 5b, R 6a, and R 6b is C1-C6 alkyl substituted with at least one hydroxy group or amino group wherein the term "optionally substituted" means that the groups in question are either unsubstituted or substituted with one or more groups, radicals or moieties, selected from halogen, hydroxy, amino or carboxy, and "amino" includes amino further substituted with C1-C3alkyl.
An isolated polynucleotide comprising: (a) a nucleotide sequence encoding a mutant polypeptide having delta-9 elongase activity and having an amino acid sequence as set forth in SEQ ID NO:22, wherein SEQ ID NO:22 differs from SEQ ID NO:10 by at least one amino acid mutation, said mutation(s) selected from the group consisting of: i) a L35G mutation; ii) a L35F mutation; iii) a L35M mutation; iv) a L35G mutation and at least one other mutation selected from the group consisting of: S9A, S9D, S9G, S9I, S9K, S9Q, Q12K, A21D, A21T, A21V, V32F, Y84C, L108G, G127L, W132T, M143N, M143W, L161T, L161Y, W168G, I179M, I179R, C236N, Q244N, A254W and A254Y; v) L35G, A21V, L108G and I179R mutations; vi) L35G, W132T and I179R mutations; vii) L35G, S9D, Y84C and I179R mutations; viii) L35G, Y84C, I179R and Q244N mutations; ix) L35G, A21V, W132T, I179R and Q244N mutations; x) L35M and Q107E mutations; xi) K58R and I257T mutations; xii) a D98G mutation; and xiii) L130M and V243A mutations; or (b) a complement of the nucleotide sequence of part (a), wherein the complement and the nucleotide sequence consist of the same number of nucleotides and are 100% complementary. (a) a nucleotide sequence encoding a mutant polypeptide having delta-9 elongase activity and having an amino acid sequence as set forth in SEQ ID NO:22, wherein SEQ ID NO:22 differs from SEQ ID NO:10 by at least one amino acid mutation, said mutation(s) selected from the group consisting of: i) a L35G mutation; ii) a L35F mutation; iii) a L35M mutation; iv) a L35G mutation and at least one other mutation selected from the group consisting of: S9A, S9D, S9G, S9I, S9K, S9Q, Q12K, A21D, A21T, A21V, V32F, Y84C, L108G, G127L, W132T, M143N, M143W, L161T, L161Y, W168G, I179M, I179R, C236N, Q244N, A254W and A254Y; v) L35G, A21V, L108G and I179R mutations; vi) L35G, W132T and I179R mutations; vii) L35G, S9D, Y84C and I179R mutations; viii) L35G, Y84C, I179R and Q244N mutations; ix) L35G, A21V, W132T, I179R and Q244N mutations; x) L35M and Q107E mutations; xi) K58R and I257T mutations; xii) a D98G mutation; and xiii) L130M and V243A mutations; or i) a L35G mutation; ii) a L35F mutation; iii) a L35M mutation; iv) a L35G mutation and at least one other mutation selected from the group consisting of: S9A, S9D, S9G, S9I, S9K, S9Q, Q12K, A21D, A21T, A21V, V32F, Y84C, L108G, G127L, W132T, M143N, M143W, L161T, L161Y, W168G, I179M, I179R, C236N, Q244N, A254W and A254Y; v) L35G, A21V, L108G and I179R mutations; vi) L35G, W132T and I179R mutations; vii) L35G, S9D, Y84C and I179R mutations; viii) L35G, Y84C, I179R and Q244N mutations; ix) L35G, A21V, W132T, I179R and Q244N mutations; x) L35M and Q107E mutations; xi) K58R and I257T mutations; xii) a D98G mutation; and xiii) L130M and V243A mutations; or (b) a complement of the nucleotide sequence of part (a), wherein the complement and the nucleotide sequence consist of the same number of nucleotides and are 100% complementary.
A gas meter device, comprising: a flow-rate measuring unit which is coupled to a gas supply pipe for homes and measures a gas flow rate; an appliance information input unit; a registration storage unit which stores data registered by the appliance information input unit, said data including appliance determining values of a number of gas appliances; an appliance determining unit which compares the appliance determining values registered in the registration storage unit with a gas flow-rate value measured by the flow-rate measuring unit to thereby determine the gas appliance being used; and a tamper determining unit which determines that gas is used without authorization when a particular flow-rate change profile different from the appliance determining value registered in the registration storage unit is generated and there is a continuation of a particular flow rate due to an unauthorized action or the like of a user. a flow-rate measuring unit which is coupled to a gas supply pipe for homes and measures a gas flow rate; an appliance information input unit; a registration storage unit which stores data registered by the appliance information input unit, said data including appliance determining values of a number of gas appliances; an appliance determining unit which compares the appliance determining values registered in the registration storage unit with a gas flow-rate value measured by the flow-rate measuring unit to thereby determine the gas appliance being used; and a tamper determining unit which determines that gas is used without authorization when a particular flow-rate change profile different from the appliance determining value registered in the registration storage unit is generated and there is a continuation of a particular flow rate due to an unauthorized action or the like of a user.
A mid-turbine frame connected to at least one mount of a gas turbine engine for transferring a first load from a first bearing and a second load from a second bearing to the mount, the mid-turbine frame comprising: a single point load shell structure, wherein the first load is transferred to the single point load shell structures by a first bearing cone at a first angle that is not perpendicular to the rotational axis of the gas turbine engine and the second load is transferred to the single point load shell structures by a second bearing cone at a second angle that is not perpendicular to the rotational axis of the gas turbine engine; and a plurality of struts connected to the single point load shell structure for transferring the combined load from the single point load shell structure to the mount; characterised in that the mid-turbine frame further comprises: a concave surface that opens in a radially outward direction with respect to a rotational axis of the gas turbine engine for combining the first load and the second load into a combined load; and a torque box (22a;22b) having a first member and a second member both perpendicular to the rotational axis of the gas turbine engine and joined by the concave surface for transferring the combined load from the concave surface; and in that the single point load shell structure is X-shaped and further comprises an x-branch connected to the concave surface and the first member of the torque box (22a;22b), the x-branch extending along a same plane as the second bearing cone, or is U-shaped with the first and second members joined by the concave surface. a single point load shell structure, wherein the first load is transferred to the single point load shell structures by a first bearing cone at a first angle that is not perpendicular to the rotational axis of the gas turbine engine and the second load is transferred to the single point load shell structures by a second bearing cone at a second angle that is not perpendicular to the rotational axis of the gas turbine engine; and a plurality of struts connected to the single point load shell structure for transferring the combined load from the single point load shell structure to the mount; characterised in that the mid-turbine frame further comprises: a concave surface that opens in a radially outward direction with respect to a rotational axis of the gas turbine engine for combining the first load and the second load into a combined load; and a torque box (22a;22b) having a first member and a second member both perpendicular to the rotational axis of the gas turbine engine and joined by the concave surface for transferring the combined load from the concave surface; and in that the single point load shell structure is X-shaped and further comprises an x-branch connected to the concave surface and the first member of the torque box (22a;22b), the x-branch extending along a same plane as the second bearing cone, or is U-shaped with the first and second members joined by the concave surface.
Gas collecting pipe for a gas-operated household device, having - a tube element which in its interior has a gas passage channel with a predetermined cross-section, and - a stopper-like, gas-tight tube closure element which is arranged inside the tube element and closes the gas passage channel in this region in a gas-tight manner, the tube element has at least one tube region which is plastically deformed relative to the tube closure element and which abuts the tube closure element in a sealing manner, characterised in that the plastically deformed tube region is deformed from the outside of the tube element into the gas passage channel. - a tube element which in its interior has a gas passage channel with a predetermined cross-section, and - a stopper-like, gas-tight tube closure element which is arranged inside the tube element and closes the gas passage channel in this region in a gas-tight manner,
Detection circuit comprising: - a switch, - a photodiode connected to a first main terminal of the switch, - an integrator connected to a second main terminal of the switch and arranged to receive the signal emitted by the photodiode, characterized in that it comprises a circuit for performing alternate switching of the bias of the photodiode between a reverse bias and another state, the switch being configured to be in the blocking state when the photodiode is in the other state. - a switch, - a photodiode connected to a first main terminal of the switch, - an integrator connected to a second main terminal of the switch and arranged to receive the signal emitted by the photodiode,
A process for the preparation of artificial leather, which process comprises the following steps: a. extracting from a vegetal source a powder having average particle size by volume lower than 40 μm, humidity content lower than 10 wt %, lignin content higher than 30 wt % based on the dry residue, and NDF fiber content higher than 85 wt % based on the dry residue; b. blending the powder obtained in step a) with polyurethane in a weight ratio comprised between 15:85 and 85:15; c. spreading the blend of step b) onto a support of vegetal origin in the presence of a bonding agent. a. extracting from a vegetal source a powder having average particle size by volume lower than 40 μm, humidity content lower than 10 wt %, lignin content higher than 30 wt % based on the dry residue, and NDF fiber content higher than 85 wt % based on the dry residue; b. blending the powder obtained in step a) with polyurethane in a weight ratio comprised between 15:85 and 85:15; c. spreading the blend of step b) onto a support of vegetal origin in the presence of a bonding agent.
A process for producing olefins from oxygenates, comprising the following steps: (i) heterogeneously catalyzed conversion of methanol to a product stream containing a C 3- and a C 4+ fraction, (ii) distillation of the product stream for separating the C 3- fraction from a bottom product, and (iii) distillation of the bottom product for separating a stream containing the C 4+ fraction and dimethyl ether from a stream containing water and methanol. (i) heterogeneously catalyzed conversion of methanol to a product stream containing a C 3- and a C 4+ fraction, (ii) distillation of the product stream for separating the C 3- fraction from a bottom product, and (iii) distillation of the bottom product for separating a stream containing the C 4+ fraction and dimethyl ether from a stream containing water and methanol.
Method for controlling a compressor that has one or more compressor elements (2, 2A, 2B) including a turbo compressor element, that each have an inlet and an outlet, characterised in that during a transition from full load or partial load to zero load, at least a first aforementioned turbo compressor element (2, 2A, 2B) goes through a process A that comprises the following steps: - the at least temporary reduction of the inlet pressure of this first turbo compressor element; and - the subsequent or simultaneous, partly simultaneous and partly subsequent, reduction of the speed and/or the drive torque of this first turbo compressor element to a lower value or zero, and that during a transition from zero load to partial load or full load, at least this first turbo compressor element (2, 2A, 2B) goes through a process B that comprises the following steps: - increase of the speed and/or the drive torque of this first turbo compressor element to a nominal value or to within a nominal value range; and - the subsequent or simultaneous or partly simultaneous and partly subsequent controlled increase of the inlet pressure of this first turbo compressor element. - the at least temporary reduction of the inlet pressure of this first turbo compressor element; and - the subsequent or simultaneous, partly simultaneous and partly subsequent, reduction of the speed and/or the drive torque of this first turbo compressor element to a lower value or zero, - increase of the speed and/or the drive torque of this first turbo compressor element to a nominal value or to within a nominal value range; and - the subsequent or simultaneous or partly simultaneous and partly subsequent controlled increase of the inlet pressure of this first turbo compressor element.
A method for gluing a single faced corrugated cardboard (k) in a double facer, the method comprising: immersing part of a gluing roll into glue (g) contained in a glue bath; adjusting glue adhering to the gluing roll to a predetermined thickness (δ) by a doctor roll; and transferring the glue to flute tips (m) of the single faced corrugated cardboard (k) while the single faced corrugated cardboard (k) is passing through a nip between the gluing roll and a pressure roll, wherein the single faced corrugated cardboard (k) is wrapped around a swing roll disposed at an upstream portion of a transferring direction of the single faced corrugated cardboard (k) from the nip between the gluing roll and the pressure roll, characterized in that the number of flute tips (m) of the single faced corrugated cardboard (k) that are to be concurrently in contact with the gluing roll and applied the glue (g) is adjusted by moving the swing roll in such a direction that the single faced corrugated cardboard (k) is wrapped around the gluing roll when the single faced corrugated cardboard (k) is passing through the nip. immersing part of a gluing roll into glue (g) contained in a glue bath; adjusting glue adhering to the gluing roll to a predetermined thickness (δ) by a doctor roll; and transferring the glue to flute tips (m) of the single faced corrugated cardboard (k) while the single faced corrugated cardboard (k) is passing through a nip between the gluing roll and a pressure roll, wherein the single faced corrugated cardboard (k) is wrapped around a swing roll disposed at an upstream portion of a transferring direction of the single faced corrugated cardboard (k) from the nip between the gluing roll and the pressure roll,