mhurhangee/ep-ind-claims huggingface dataset:
An emissions measurement system comprising: an emissions sample inlet; at least three particulate matter sensors (26, 27, 28) connected to the emissions sample inlet, wherein the particulate matter sensors (26,27,28) are sequentially connected in a linear arrangement and wherein each of the at least three particulate matter sensors (26,27,28) is configured to capture data of different characteristics of a particulate matter emission sample using different sensing techniques of the emission sample; a processing unit wirelessly connected to the particulate matter sensors (26,27,28), in which the processing unit is configured to provide results based on data provided by the particulate matter sensors(26,27,28); and an emissions sample outlet connected to the at least three particulate matter sensors (26,27,28); characterized in that the processing unit is configured to triangulate the data of different characteristics provided by the at least three particulate matter sensors (26,27,28) by combining the data of different characteristics from the at least three particulate matter sensors (26,27,28) using a proportionality factor, a weighted linear integral factor, or a non-linear integral factor. an emissions sample inlet; at least three particulate matter sensors (26, 27, 28) connected to the emissions sample inlet, wherein the particulate matter sensors (26,27,28) are sequentially connected in a linear arrangement and wherein each of the at least three particulate matter sensors (26,27,28) is configured to capture data of different characteristics of a particulate matter emission sample using different sensing techniques of the emission sample; a processing unit wirelessly connected to the particulate matter sensors (26,27,28), in which the processing unit is configured to provide results based on data provided by the particulate matter sensors(26,27,28); and an emissions sample outlet connected to the at least three particulate matter sensors (26,27,28); characterized in that the processing unit is configured to triangulate the data of different characteristics provided by the at least three particulate matter sensors (26,27,28) by combining the data of different characteristics from the at least three particulate matter sensors (26,27,28) using a proportionality factor, a weighted linear integral factor, or a non-linear integral factor.
A breast pump adapted to be operated by a single hand of a user, comprising a body having a funnel-shaped portion adapted to receive at least part of the breast of a user and connected to a conduit, which is adapted to transfer the breast-expressed milk to an end portion of such body, the latter being connected to a container, to collect such liquid therein, said body comprising suction means actuated by actuator means, which are adapted to allow milk to be expressed and introduced into said container by an action of the user on said actuator means, said suction means comprising a diaphragm member moving in a suction chamber which is functionally connected to said conduit and contained in said breast pump body, said diaphragm member being adapted to rotate about a contact area thereof, which abuts a wall of such suction chamber as a result of the action of the user upon the actuator means, characterized in that the actuator means comprise an actuating lever which is hinged to an outer wall of the breast pump body in a position below the suction chamber.
A method for generating a signal of a broadcasting receiving apparatus, the method comprising: receiving a broadcasting signal by tuning a frequency; setting a predetermined frequency range as a guide band frequency based on the tuned frequency; and transmitting information for the guide band frequency to at least one external apparatus newly entered in a frequency environment, characterised by: the setting the guide band frequency further comprising resetting the guide band frequency at preset time intervals, wherein the resetting resets the guide band frequency at a first interval cycle if a number of the at least one external apparatus and a type of the at least one external apparatus is not limited, and wherein the resetting resets the guide band frequency at a second interval cycle which is longer than the first interval cycle if a number of the at least one external apparatus and a type of the at least one external apparatus is limited. receiving a broadcasting signal by tuning a frequency; setting a predetermined frequency range as a guide band frequency based on the tuned frequency; and transmitting information for the guide band frequency to at least one external apparatus newly entered in a frequency environment, characterised by: the setting the guide band frequency further comprising resetting the guide band frequency at preset time intervals, wherein the resetting resets the guide band frequency at a first interval cycle if a number of the at least one external apparatus and a type of the at least one external apparatus is not limited, and wherein the resetting resets the guide band frequency at a second interval cycle which is longer than the first interval cycle if a number of the at least one external apparatus and a type of the at least one external apparatus is limited. the setting the guide band frequency further comprising resetting the guide band frequency at preset time intervals, wherein the resetting resets the guide band frequency at a first interval cycle if a number of the at least one external apparatus and a type of the at least one external apparatus is not limited, and wherein the resetting resets the guide band frequency at a second interval cycle which is longer than the first interval cycle if a number of the at least one external apparatus and a type of the at least one external apparatus is limited.
A holder for a profiled rail, wherein - the holder comprises a main body, a clamping element and a screw connection (3, 4), - the main body comprises a supporting surface which is provided for placing the profiled rail on, and the main body comprises a holding-down strip for holding down a holding edge of the profiled rail against the supporting surface, - the main body contains a first opening, and the clamping element contains a second opening, and the screw connection (3, 4) leads through the second opening and the first opening and is fixable on a carrier component, and - the clamping element can clamp the profiled rail against the main body by means of the screw connection (3, 4), characterized in that - the holder comprises a rotary joint, and an axis of rotation of the rotary joint runs parallel to the supporting surface and to the holding-down strip, and - the clamping element is guided radially with respect to the axis of rotation between an open pivoted position and a closed pivoted position by means of the rotary joint on the main body, wherein the holder comprises an elastic means, which urges the clamping element in direction to the open pivoted position. - the holder comprises a main body, a clamping element and a screw connection (3, 4), - the main body comprises a supporting surface which is provided for placing the profiled rail on, and the main body comprises a holding-down strip for holding down a holding edge of the profiled rail against the supporting surface, - the main body contains a first opening, and the clamping element contains a second opening, and the screw connection (3, 4) leads through the second opening and the first opening and is fixable on a carrier component, and - the clamping element can clamp the profiled rail against the main body by means of the screw connection (3, 4), - the holder comprises a rotary joint, and an axis of rotation of the rotary joint runs parallel to the supporting surface and to the holding-down strip, and - the clamping element is guided radially with respect to the axis of rotation between an open pivoted position and a closed pivoted position by means of the rotary joint on the main body, wherein the holder comprises an elastic means, which urges the clamping element in direction to the open pivoted position.
Illumination device, which is a vehicle component, having - a fibre-composite material component which comprises a plastics matrix and a multiplicity of reinforcement fibres which are embedded in the plastics matrix, wherein the reinforcement fibres are carbon fibres; - at least one light source; and - at least one light-conducting body which has at least one light-introduction face for coupling in light that is emitted from the light source, and at least one light-exit face for decoupling light; - wherein the light-conducting body is embedded in the plastics matrix of the fibre-composite material component, wherein the fibre-composite material component is at least partially translucent to light which is decoupled from the light-exit face; and - wherein the light-conducting body is embedded in the fibre-composite material component in such a manner that said light-conducting body is in contact with at least one of the reinforcement fibres over at least half the length of the latter. - a fibre-composite material component which comprises a plastics matrix and a multiplicity of reinforcement fibres which are embedded in the plastics matrix, wherein the reinforcement fibres are carbon fibres; - at least one light source; and - at least one light-conducting body which has at least one light-introduction face for coupling in light that is emitted from the light source, and at least one light-exit face for decoupling light; - wherein the light-conducting body is embedded in the plastics matrix of the fibre-composite material component, wherein the fibre-composite material component is at least partially translucent to light which is decoupled from the light-exit face; and - wherein the light-conducting body is embedded in the fibre-composite material component in such a manner that said light-conducting body is in contact with at least one of the reinforcement fibres over at least half the length of the latter.
A connector for animal, comprising: a hook member (Ho) connectable to an object to be connected; a stem portion extending from an end portion of the hook member in a first direction; a slide bar (Sb) closing and opening the hook member by reciprocating in the first direction; a lock member rotatably installed around the stem portion with respect to the first direction as a rotation axis; and an operating member (Kn) joined to the slide bar and protruding in a second direction perpendicular to the first direction, the lock member including a cylindrical member with a cylindrical shaped space formed therein for accommodating the stem portion in a rotatable manner, and a projection extending toward the hook member by a predetermined length from a part of end portion on the side of the hook member of the cylindrical member, wherein the projection can be selectively positioned to be opposite to at least a part of the operating member by rotating the lock member, wherein the lock member is formed from combining two half-shells (Sh4, Sh7r), the connector further comprising a contacting member (Sr4i) protruding from the inner peripheral face of the cylindrical member to be contactable with the stem portion, and wherein the operating member (Kn) includes a knob (Kna) and a joint member (Knb) connecting the knob to the slide bar, and the projection includes a seat portion opposable to the knob, wherein the seat portion comprises a plate member (Re7p) extending in a direction perpendicular to the first direction and a pair of projection thread parts (Re7r) provided on the plate member. a hook member (Ho) connectable to an object to be connected; a stem portion extending from an end portion of the hook member in a first direction; a slide bar (Sb) closing and opening the hook member by reciprocating in the first direction; a lock member rotatably installed around the stem portion with respect to the first direction as a rotation axis; and an operating member (Kn) joined to the slide bar and protruding in a second direction perpendicular to the first direction, the lock member including a cylindrical member with a cylindrical shaped space formed therein for accommodating the stem portion in a rotatable manner, and a projection extending toward the hook member by a predetermined length from a part of end portion on the side of the hook member of the cylindrical member, wherein the projection can be selectively positioned to be opposite to at least a part of the operating member by rotating the lock member, wherein the lock member is formed from combining two half-shells (Sh4, Sh7r), the connector further comprising a contacting member (Sr4i) protruding from the inner peripheral face of the cylindrical member to be contactable with the stem portion, and wherein the operating member (Kn) includes a knob (Kna) and a joint member (Knb) connecting the knob to the slide bar, and the projection includes a seat portion opposable to the knob, wherein the seat portion comprises a plate member (Re7p) extending in a direction perpendicular to the first direction and a pair of projection thread parts (Re7r) provided on the plate member.
A method for transmitting downlink hybrid automatic repeat request, HARQ, acknowledgement/non-acknowledgement, ACK/NACK, information in a wireless communication system, the method comprising: receiving, on an uplink data channel, a plurality of codewords from an uplink transmission entity; generating ACK/NACK information for each of the plurality of codewords, in accordance with the results of decoding of the plurality of codewords; and transmitting each of the generated ACK/NACK information to the uplink transmission entity on each of a plurality of physical HARQ indicator channel, PHICH, resources, wherein each of the plurality of PHICH resources is allocated for transmission of the ACK/NACK information for each of the plurality of codewords, based on a parameter having different values for each of the plurality of codewords and each of a plurality of carriers through which each of the plurality of PHICH resources is transmitted, and wherein the parameter comprises a physical resource block, PRB, index parameter including a PRB index allocated differently for each of the plurality of carriers and a first value configured to have different values for each of the plurality of codewords and a demodulation - reference signal, DM-RS index parameter including a DM-RS index allocated differently for each of the plurality of carriers and a second value configured to have different values for each of the plurality of carriers. receiving, on an uplink data channel, a plurality of codewords from an uplink transmission entity; generating ACK/NACK information for each of the plurality of codewords, in accordance with the results of decoding of the plurality of codewords; and transmitting each of the generated ACK/NACK information to the uplink transmission entity on each of a plurality of physical HARQ indicator channel, PHICH, resources, wherein each of the plurality of PHICH resources is allocated for transmission of the ACK/NACK information for each of the plurality of codewords, based on a parameter having different values for each of the plurality of codewords and each of a plurality of carriers through which each of the plurality of PHICH resources is transmitted, and wherein the parameter comprises a physical resource block, PRB, index parameter including a PRB index allocated differently for each of the plurality of carriers and a first value configured to have different values for each of the plurality of codewords and a demodulation - reference signal, DM-RS index parameter including a DM-RS index allocated differently for each of the plurality of carriers and a second value configured to have different values for each of the plurality of carriers.
Method for detaching a monocrystalline layer, which was deposited on a monocrystalline substrate, wherein the monocrystalline substrate and the monocrystalline layer that is deposited thereon form a main body and wherein the main body has a planar surface at least in the region in which the monocrystalline layer is intended to be detached, characterized by line-shaped scanning of the planar surface of the main body with a focused electron beam, beginning on one side of the main body and ending on the opposite side thereof.
Portable drilling or screw driving device comprising at least: - an electric motor; - autonomous or wired means for supplying electricity to said motor; - an actuating trigger; - means for controlling said motor as a function of the position of said trigger; said trigger being capable of moving between at least: - a rest position in which said motor is at a stop; - a fully actuated position in which said motor is driven by said means for controlling at a first predetermined rotational frequency; said trigger can assume a predetermined intermediate position in which it is located between said rest and actuated positions and said motor is driven by said means for controlling at a second predetermined rotational frequency; the portable drilling or screw driving device comprising elastic return means opposing the displacement of said trigger from the rest position thereof to the fully actuated position thereof, and characterised in that the portable drilling or screw driving device comprises first fixed magnetic attraction means opposing the displacement of said trigger between the intermediate position thereof and the fully actuated position thereof. - an electric motor; - autonomous or wired means for supplying electricity to said motor; - an actuating trigger; - means for controlling said motor as a function of the position of said trigger; - a rest position in which said motor is at a stop; - a fully actuated position in which said motor is driven by said means for controlling at a first predetermined rotational frequency;
An accelerometer system (10; 250) comprising: an accelerometer sensor (12; 100; 252) comprising a first electrode configuration (15; 110), a second electrode configuration (16; 112), and an inertial mass (14; 108), between the first and second electrode configurations, the accelerometer sensor being fabricated as symmetrically arranged about each of three orthogonal mid-planes through a middle portion of the accelerometer sensor; and an accelerometer controller (18; 254), configured to apply control signals to each of the first and second electrode configurations to provide respective forces to maintain the inertial mass at a null position between the first and second electrode configurations, the accelerometer controller being further configured to measure a first pickoff signal and a second pickoff signal associated with the respective first and second electrode configurations, the first and second pickoff signals being indicative of a displacement of the inertial mass relative to the null position, and to calculate an acceleration based on the first and second pickoff signals; and characterised by a mounting interposer on which the accelerometer sensor is mounted via a mechanically compliant adhesive along the first mid-plane that separates the accelerometer sensor and the mounting interposer, the adhesive being arranged in a pattern that is symmetric about two of the orthogonal mid-planes that are orthogonal to the first mid-plane. an accelerometer sensor (12; 100; 252) comprising a first electrode configuration (15; 110), a second electrode configuration (16; 112), and an inertial mass (14; 108), between the first and second electrode configurations, the accelerometer sensor being fabricated as symmetrically arranged about each of three orthogonal mid-planes through a middle portion of the accelerometer sensor; and an accelerometer controller (18; 254), configured to apply control signals to each of the first and second electrode configurations to provide respective forces to maintain the inertial mass at a null position between the first and second electrode configurations, the accelerometer controller being further configured to measure a first pickoff signal and a second pickoff signal associated with the respective first and second electrode configurations, the first and second pickoff signals being indicative of a displacement of the inertial mass relative to the null position, and to calculate an acceleration based on the first and second pickoff signals; and characterised by a mounting interposer on which the accelerometer sensor is mounted via a mechanically compliant adhesive along the first mid-plane that separates the accelerometer sensor and the mounting interposer, the adhesive being arranged in a pattern that is symmetric about two of the orthogonal mid-planes that are orthogonal to the first mid-plane.
Method for managing a group of dairy animals (10, 10A), comprising: - automatically milking, with a milking station, a dairy animal (10, 10A), of the group of dairy animals (10, 10A), which presents itself at the milking station, - determining a subgroup of dairy animals to be separated from the group of dairy animals (10, 10A), - determining a separation period, defined by a start time and an end time, in which the dairy animals in the subgroup of dairy animals to be separated which present themselves at the milking station during the separation period are separated from the group of dairy animals (10, 10A), characterized in that an individual separation period, which is determined by the length of time from an individual start time, preceding the end time, to the end time, is selected separately, for each individual dairy animal in the subgroup of dairy animals to be separated, in dependence of a property of said individual dairy animal, and in that said individual dairy animal in the subgroup of dairy animals to be separated is separated from the group of dairy animals (10, 10A) when it presents itself at the milking station during the individual separation period selected for said dairy animal. - automatically milking, with a milking station, a dairy animal (10, 10A), of the group of dairy animals (10, 10A), which presents itself at the milking station, - determining a subgroup of dairy animals to be separated from the group of dairy animals (10, 10A), - determining a separation period, defined by a start time and an end time, in which the dairy animals in the subgroup of dairy animals to be separated which present themselves at the milking station during the separation period are separated from the group of dairy animals (10, 10A),
A Carrier Aggregation, CA, method for a communication system, comprising: aggregating multiple serving cells with existence of subframe deviations to obtain K Primary Cells, PCells, and M Secondary Cells, SCells, wherein the multiple serving cells are Time Division Duplex, TDD, serving cells, and K and M are positive integers; and transmitting, by a transmission node, information in the multiple serving cells according to the subframe deviations; wherein the subframe deviations comprise: corresponding subframe index difference values between the serving cells under a same radio frame index, or difference values of subframes where synchronization channels are located between the multiple serving cells. aggregating multiple serving cells with existence of subframe deviations to obtain K Primary Cells, PCells, and M Secondary Cells, SCells, wherein the multiple serving cells are Time Division Duplex, TDD, serving cells, and K and M are positive integers; and transmitting, by a transmission node, information in the multiple serving cells according to the subframe deviations; wherein the subframe deviations comprise: corresponding subframe index difference values between the serving cells under a same radio frame index, or difference values of subframes where synchronization channels are located between the multiple serving cells.