mhurhangee/ep-ind-claims huggingface dataset:
A multiple-unit air conditioning apparatus comprising: an outdoor unit; and a plurality of indoor units, wherein a compressor, indoor heat exchangers provided for the individual indoor units, expansion devices that are provided for the individual indoor heat exchangers and that change refrigerant flow rate, and an outdoor heat exchanger provided for the outdoor unit are connected by refrigerant pipes, and refrigerant circuits in which a refrigerant is circulated are formed for the individual indoor units, wherein each of the indoor units includes indoor unit control means configured to control operation of the indoor unit and to transmit an operation command for the indoor unit and measurement information of the indoor unit, wherein the outdoor unit includes outdoor unit control means connected by wires (18 to 26) to the indoor unit control means of the individual indoor units, and wherein the outdoor unit control means receives an operation command for each of the indoor units, transmitted by the indoor unit control means of the indoor unit, recognizes that the indoor unit corresponding to the wire (18 to 26) that has received the operation command is operating, and performs control to circulate the refrigerant in a refrigerant circuit corresponding to the operating indoor unit, characterized in that when the operation command for the indoor unit, received from the indoor unit control means, does not match the refrigerant circuit of the indoor unit whose refrigerant circulation is controlled by the outdoor unit control means, the outdoor unit control means extracts operation patterns of a refrigerant circuit in which the refrigerant is circulated and a refrigerant circuit in which no refrigerant is circulated, on the basis of a number of operating indoor units, switches the refrigerant circuit in which the refrigerant is circulated, in accordance with the operation patterns, associates each wire (18 to 26) connected to the indoor unit control means of each indoor unit and each refrigerant circuit controlled by the outdoor unit control means, on the basis of the measurement information of the indoor unit, received from the indoor unit control means, and an operation state of the indoor unit corresponding to the wire (18 to 26) which has received the measurement information, and changes recognition of the wire connections so that the operation command for the indoor unit, received from the indoor unit control means, matches the refrigerant circuit of the indoor unit whose refrigerant circulation is controlled by the outdoor unit control means. an outdoor unit; and a plurality of indoor units,
An adjustable clamp comprising: a clamp body comprising: an aperture, a slit, a recess and a bore; a front surface, a back surface, an outer surface, an inner surface, a first half, and a second half; wherein a centerline axis separates the first half from the second half; wherein the centerline axis of the clamp extends through the aperture, the slit, and the recess; wherein the clamp body is generally A-frame shaped. an aperture, a slit, a recess and a bore; a front surface, a back surface, an outer surface, an inner surface, a first half, and a second half; wherein a centerline axis separates the first half from the second half; wherein the centerline axis of the clamp extends through the aperture, the slit, and the recess; wherein the clamp body is generally A-frame shaped.
A compound of Formula 1: wherein: wherein R 1 is H, CH 2 NH 2, or CH 2 NHC (CH 2)CO 2 H; R 2 is H, CH 2 NH 2, or CH 2 NHC (CH 2) m CO 2 H; provided that either R 1 or R 2 must be H, and further provided that both R 1 and R 2 may not be H simultaneously; R 3 is H; m is 1, 2, 3, 4, or 5; n is 1, 2, 3, 4, or 5. wherein R 1 is H, CH 2 NH 2, or CH 2 NHC (CH 2)CO 2 H; R 2 is H, CH 2 NH 2, or CH 2 NHC (CH 2) m CO 2 H; provided that either R 1 or R 2 must be H, and further provided that both R 1 and R 2 may not be H simultaneously; R 3 is H; m is 1, 2, 3, 4, or 5; n is 1, 2, 3, 4, or 5.
A partition member which has a thickness direction and a surface direction perpendicular to the thickness direction, and which separates single cells that make up an assembled battery in the thickness direction, or a single cell that makes up the assembled battery in the thickness direction and a member other than the single cells, the partition member comprising: in the interior thereof, a fluid holding part capable of holding a fluid having a boiling point at normal pressure of 80°C to 250°C, and a flow channel of the fluid extending along the surface direction, wherein the fluid holding part is hermetically sealed by a packaging material, wherein the flow channel includes a continuous space through which the fluid is capable of moving and which has a length of 1 mm or greater, and the space is a space in which a sphere capable of being inscribed in a region of the space has a diameter of 0.1 mm or greater, the region taking up 90% or more of the volume of the space, wherein a porous body containing the fluid is provided in the interior of the partition member, and the flow channel is formed in the porous body. in the interior thereof, a fluid holding part capable of holding a fluid having a boiling point at normal pressure of 80°C to 250°C, and a flow channel of the fluid extending along the surface direction, wherein the fluid holding part is hermetically sealed by a packaging material, wherein the flow channel includes a continuous space through which the fluid is capable of moving and which has a length of 1 mm or greater, and the space is a space in which a sphere capable of being inscribed in a region of the space has a diameter of 0.1 mm or greater, the region taking up 90% or more of the volume of the space, wherein a porous body containing the fluid is provided in the interior of the partition member, and the flow channel is formed in the porous body.
An articulation assembly comprising: a proximal universal joint configured to couple to a central section of a drive shaft defining a longitudinal axis (A-A) and to rotate in response to rotation of the drive shaft about the axis (A-A); and a distal universal joint rotatably coupled to the proximal universal joint such that rotation of the proximal universal joint effects rotation of the distal universal joint about the axis (A-A), the distal universal joint configured to couple to a distal section of the drive shaft to rotate the distal section about the axis (A-A) in response to rotation of the distal universal joint, wherein the proximal universal joint is biased towards a centered position, the biasing of the proximal universal joint is overcome when the distal universal joint reaches a maximum articulation angle relative to the axis (A-A). a proximal universal joint configured to couple to a central section of a drive shaft defining a longitudinal axis (A-A) and to rotate in response to rotation of the drive shaft about the axis (A-A); and a distal universal joint rotatably coupled to the proximal universal joint such that rotation of the proximal universal joint effects rotation of the distal universal joint about the axis (A-A), the distal universal joint configured to couple to a distal section of the drive shaft to rotate the distal section about the axis (A-A) in response to rotation of the distal universal joint, wherein the proximal universal joint is biased towards a centered position, the biasing of the proximal universal joint is overcome when the distal universal joint reaches a maximum articulation angle relative to the axis (A-A).
A user equipment, UE, handover method, comprising: obtaining, by a target base station, an identifier of a source control plane and a context identifier of a UE from a source base station; and sending, by the target base station, the identifier of the source control plane and the context identifier of the UE to a target control plane device, wherein the identifier of the source control plane and the context identifier of the UE are used to obtain a context of the UE; wherein the method further comprises: determining, by the target base station based on the identifier of the source control plane, whether the target base station is connected to the source control plane; and if the target base station is not connected to the source control plane, selecting, by the target base station, a control plane as a target control plane. obtaining, by a target base station, an identifier of a source control plane and a context identifier of a UE from a source base station; and sending, by the target base station, the identifier of the source control plane and the context identifier of the UE to a target control plane device, wherein the identifier of the source control plane and the context identifier of the UE are used to obtain a context of the UE; wherein the method further comprises: determining, by the target base station based on the identifier of the source control plane, whether the target base station is connected to the source control plane; and if the target base station is not connected to the source control plane, selecting, by the target base station, a control plane as a target control plane.
A composition for use in the treatment or prevention of an Influenza infection in a mammal, wherein said composition comprises an attenuated Bordetella strain, wherein said attenuated Bordetella strain is a mutated Bordetella strain comprising: a mutated pertussis toxin (ptx) gene, a deleted or mutated dermonecrotic (dnt) gene, and a heterologous ampG gene, and wherein said mutated Bordetella strain does not comprise a heterologous expression platform carrying heterologous antigens, said heterologous expression platform being used to deliver the heterologous antigens to the respiratory mucosa of a mammal. a mutated pertussis toxin (ptx) gene, a deleted or mutated dermonecrotic (dnt) gene, and a heterologous ampG gene, and wherein said mutated Bordetella strain does not comprise a heterologous expression platform carrying heterologous antigens, said heterologous expression platform being used to deliver the heterologous antigens to the respiratory mucosa of a mammal.
Load carrier coupling (10; 110) for a load carrier, for releasable fastening to a coupling body, in particular a coupling ball, of a trailer coupling (80; 280; 180) of a motor vehicle, with a coupling base (11; 111) and a gripping device (65; 165) comprising at least two gripping parts for gripping the coupling body, at least one of which forms an actuating gripping part (17; 117) which is movable by an actuating element, in particular having a handle, between an open position provided for bringing the coupling body into a storage space bounded by at least one of the gripping parts (20; 120) and further removed from at least one of the other gripping parts (20; 120), and a gripping position gripping the coupling body in the storage space, wherein the load carrier coupling (10; 110) has at least one support projection (46; 146) for support on a coupling body member (81; 181) carrying the coupling body, characterised in that the support projection or projections (46; 146) is or are movement-coupled or firmly connected to the actuating gripping part or parts (17; 117) in such a way that the actuating gripping part (17; 117) shifts the support projection or projections (46; 146) during its operation into the gripping position into a support position in which the support projection (46; 146) rests on the coupling body member (81; 181), and during its operation into the open position shifts it into a release position in which the support projection or projections (46; 146) is or are moved away from the coupling body member (81; 181), so that the load carrier coupling (10; 110) may be removed from the trailer coupling (80; 280; 180), the support projection or projections (46; 146) engages or engage behind or beneath a mating contour provided on the coupling body member (81; 181) below the coupling body in such a way that the coupling body in the support position of the support projection or projections (46; 146) is tensioned between the support projection or projections (46; 146) and a counterbearing contour connected in particular firmly to the coupling base (11; 111).
A compound of the formula wherein X 1 represents a halogen; R 1 represents a hydrocarbon chain selected from the group consisting of vinyl, aryl, alkenyl, and furanyl (formula I) or CHO (formula II); and Q represents a C 1 -C 2 alkoxy. X 1 represents a halogen; R 1 represents a hydrocarbon chain selected from the group consisting of vinyl, aryl, alkenyl, and furanyl (formula I) or CHO (formula II); and Q represents a C 1 -C 2 alkoxy.
Method of setting up a two-way communication session between a customer premises equipment, CPE, and a first server, comprising: a) By said first server, periodically broadcasting at a first rate via at least one one-way DVB broadcast channel on at least one first frequency a first set of data including at least an address of said first server and a list of possible second frequencies to be used to set up a two-way DOCSIS communication channel between said customer premises equipment and said server for said two-way communication session, b) Upon switching on said customer premises equipment, by said customer premises equipment tuning to said at least one one-way DVB broadcast channel on said at least one first frequency by searching for a specific media provider identifier in all streams that can be received by the CPE, checking the presence of specific media provider identifier, and after finding said at least one first frequency of said at least one one-way DVB broadcast channel, receiving from said at least one one-way DVB channel said first set of data as broadcasted on said at least one first frequency, c) By said customer premises equipment, using said list of possible second frequencies to establish said two-way DOCSIS communication session between said customer premises equipment and said server at one of said second frequencies. a) By said first server, periodically broadcasting at a first rate via at least one one-way DVB broadcast channel on at least one first frequency a first set of data including at least an address of said first server and a list of possible second frequencies to be used to set up a two-way DOCSIS communication channel between said customer premises equipment and said server for said two-way communication session, b) Upon switching on said customer premises equipment, by said customer premises equipment tuning to said at least one one-way DVB broadcast channel on said at least one first frequency by searching for a specific media provider identifier in all streams that can be received by the CPE, checking the presence of specific media provider identifier, and after finding said at least one first frequency of said at least one one-way DVB broadcast channel, receiving from said at least one one-way DVB channel said first set of data as broadcasted on said at least one first frequency, c) By said customer premises equipment, using said list of possible second frequencies to establish said two-way DOCSIS communication session between said customer premises equipment and said server at one of said second frequencies.
A method for preparing flaked tantalum powder comprising the following steps: 1) subjecting the flaked tantalum powder to first heat treatment; 2) subjecting the first heat treated tantalum powder to first deoxidation; 3) subjecting the first deoxidized tantalum powder to low temperature nitridation at a temperature of 500°C or lower; 4) subjecting the low-temperature nitrided tantalum powder to second heat treatment at a temperature of 1000°C or higher; and 5) subjecting the second heat-treated tantalum powder to second deoxidation, and then optionally to pickling, water washing, drying, and sieving to obtain finished flaked tantalum powder, wherein the flaked tantalum powder of step 1) is obtained by subjecting tantalum powder obtained by reduction of potassium fluotantalate with sodium to ball milling, and pickling and impurity removal. 1) subjecting the flaked tantalum powder to first heat treatment; 2) subjecting the first heat treated tantalum powder to first deoxidation; 3) subjecting the first deoxidized tantalum powder to low temperature nitridation at a temperature of 500°C or lower; 4) subjecting the low-temperature nitrided tantalum powder to second heat treatment at a temperature of 1000°C or higher; and 5) subjecting the second heat-treated tantalum powder to second deoxidation, and then optionally to pickling, water washing, drying, and sieving to obtain finished flaked tantalum powder,
Compressed air supply system for a vehicle, having an air dryer (2, 2a, 2b), the air dryer (2, 2a, 2b) comprising a moisture absorbing medium, characterised in that the moisture absorbing medium is additionally designed to at least partly absorb at least one trace gas from air, wherein the absorption of the trace gas is a measure for the current absorption capacity of the moisture absorbing medium, and in that at least one detector that is sensitive to said trace gas is provided downstream of the moisture absorbing medium as a monitoring instrument for the impending saturation of the medium, wherein the detector is connected to an evaluation unit, which - interprets it as the impending saturation of the moisture absorbing medium if the concentration of the trace gas exceeds a first threshold value, and - interprets a further increase of the concentration of trace gas to a maximum followed by a decrease to below a second threshold value as full saturation of the moisture absorbing medium with moisture. - interprets it as the impending saturation of the moisture absorbing medium if the concentration of the trace gas exceeds a first threshold value, and - interprets a further increase of the concentration of trace gas to a maximum followed by a decrease to below a second threshold value as full saturation of the moisture absorbing medium with moisture.
A fuel cell, comprising: a polymer electrolyte membrane; a catalyst layer provided on the polymer electrolyte membrane; a gas diffusion layer provided on the catalyst layer; a frame member provided on an outer circumferential region of the polymer electrolyte membrane positioned on an outer side relative to an outer edge portion of the gas diffusion layer as seen from a thickness direction of the polymer electrolyte membrane; a separator (30, 40) provided on the gas diffusion layer; and a gasket provided so as to seal between the separator (30, 40) and the frame member, wherein an outer edge portion of the catalyst layer is positioned on an outer side relative to the outer edge portion of the gas diffusion layer and on an inner side relative to a center portion of the gasket as seen from the thickness direction, characterized in that the separator has a close attachment region closely attaching the separator (30, 40) to the frame member, the gasket is provided on an outer side relative to the close attachment region as seen from the thickness direction, and the close attachment region is provided between the gasket and the gas diffusion layer as seen from the thickness direction of the polymer electrolyte membrane. a polymer electrolyte membrane; a catalyst layer provided on the polymer electrolyte membrane; a gas diffusion layer provided on the catalyst layer; a frame member provided on an outer circumferential region of the polymer electrolyte membrane positioned on an outer side relative to an outer edge portion of the gas diffusion layer as seen from a thickness direction of the polymer electrolyte membrane; a separator (30, 40) provided on the gas diffusion layer; and a gasket provided so as to seal between the separator (30, 40) and the frame member, wherein an outer edge portion of the catalyst layer is positioned on an outer side relative to the outer edge portion of the gas diffusion layer and on an inner side relative to a center portion of the gasket as seen from the thickness direction, characterized in that the separator has a close attachment region closely attaching the separator (30, 40) to the frame member, the gasket is provided on an outer side relative to the close attachment region as seen from the thickness direction, and the close attachment region is provided between the gasket and the gas diffusion layer as seen from the thickness direction of the polymer electrolyte membrane.
An electrical circuit of neuronal firing modulation, comprising: a first circuit configured to monitor a firing rate of one or more neuron circuits of the electrical circuit; and a second circuit configured to control, based on the firing rate, a noise associated with one or more synaptic inputs of the one or more neuron circuits for adjusting the firing rate to enable homeostatic firing behaviour. a first circuit configured to monitor a firing rate of one or more neuron circuits of the electrical circuit; and a second circuit configured to control, based on the firing rate, a noise associated with one or more synaptic inputs of the one or more neuron circuits for adjusting the firing rate to enable homeostatic firing behaviour.
A vehicle lamp controller (228R, 228L, 302) comprising: a receiver (228R1, 228L1) configured to receive an acceleration information detected by an acceleration sensor; the vehicle lamp controller (228R, 228L, 302)further comprising: a control unit (228R2, 228L2) configured to derive a vehicle longitudinal direction acceleration and a vehicle vertical direction acceleration from the acceleration information, and to generate a control signal for instructing an adjustment of an optical axis of a vehicle lamp, based on a variation in a ratio between a temporal change amount of the vehicle longitudinal direction acceleration and a temporal change amount of the vehicle vertical direction acceleration during at least one of an acceleration and a deceleration of a vehicle; and a transmitter (228R3, 228L3) configured to transmit the control signal to an optical axis adjusting portion (236, 226) of the vehicle lamp. a receiver (228R1, 228L1) configured to receive an acceleration information detected by an acceleration sensor; the vehicle lamp controller (228R, 228L, 302)further comprising: a control unit (228R2, 228L2) configured to derive a vehicle longitudinal direction acceleration and a vehicle vertical direction acceleration from the acceleration information, and to generate a control signal for instructing an adjustment of an optical axis of a vehicle lamp, based on a variation in a ratio between a temporal change amount of the vehicle longitudinal direction acceleration and a temporal change amount of the vehicle vertical direction acceleration during at least one of an acceleration and a deceleration of a vehicle; and a transmitter (228R3, 228L3) configured to transmit the control signal to an optical axis adjusting portion (236, 226) of the vehicle lamp. a control unit (228R2, 228L2) configured to derive a vehicle longitudinal direction acceleration and a vehicle vertical direction acceleration from the acceleration information, and to generate a control signal for instructing an adjustment of an optical axis of a vehicle lamp, based on a variation in a ratio between a temporal change amount of the vehicle longitudinal direction acceleration and a temporal change amount of the vehicle vertical direction acceleration during at least one of an acceleration and a deceleration of a vehicle; and a transmitter (228R3, 228L3) configured to transmit the control signal to an optical axis adjusting portion (236, 226) of the vehicle lamp.