mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting paging messages in a wireless communication system, the method comprising: time-hashing at least one user equipment, denoted UE (116, 122), to a particular subframe, the particular subframe defining a paging occasion for a paging group including all UEs (116, 122) hashed to the particular subframe; associating a paging group identity, denoted paging group ID, for the paging group with a physical downlink control channel, denoted PDCCH (304, 502, 702, 704, 802, 902); allocating, in the PDCCH (304, 502, 702, 704, 802, 902), resources associated with a physical downlink shared channel, denoted PDSCH (308, 504, 706, 806, 904); and transmitting, in the PDSCH (308, 504, 706, 806, 904), a paging message for the at least one UE (116, 122) during the paging occasion, wherein the paging message includes at least one UE identity, denoted UE ID, for the at least one UE (116, 122) being paged in the particular subframe, and wherein the PDSCH (308, 504, 706, 806, 904) is also used to send traffic data to UEs (116, 122). time-hashing at least one user equipment, denoted UE (116, 122), to a particular subframe, the particular subframe defining a paging occasion for a paging group including all UEs (116, 122) hashed to the particular subframe; associating a paging group identity, denoted paging group ID, for the paging group with a physical downlink control channel, denoted PDCCH (304, 502, 702, 704, 802, 902); allocating, in the PDCCH (304, 502, 702, 704, 802, 902), resources associated with a physical downlink shared channel, denoted PDSCH (308, 504, 706, 806, 904); and transmitting, in the PDSCH (308, 504, 706, 806, 904), a paging message for the at least one UE (116, 122) during the paging occasion, wherein the paging message includes at least one UE identity, denoted UE ID, for the at least one UE (116, 122) being paged in the particular subframe, and wherein the PDSCH (308, 504, 706, 806, 904) is also used to send traffic data to UEs (116, 122).
Pipetting device (1; 1'), more particularly pipette or repeater pipette, for pipetting fluid laboratory samples, comprising an electric control apparatus, by means of which a pipetting process is electrically controllable, a movable part, by means of the movement of which the fluid sample is pipettable, an electrically controllable motor apparatus, by means of which the movement of the movable part is driveable depending on at least one first speed value defining the speed of the movable part, a measuring apparatus, by means of which at least one measured value which is influenced by the drag caused when pipetting the fluid sample is measurable, wherein the electric control apparatus is configured for the purposes of the at least one first speed value being fixable by the electric control apparatus, depending on the at least one measured value wherein the measuring apparatus is configured to measure a motor parameter of the motor apparatus, wherein the motor parameter is the motor current of the motor apparatus and wherein the measured value characterizes the motor parameter.
A data transmission method, comprising: sending, by a transmit end, a plurality of data packets in a first round-trip time, RTT, of a data transmission phase between the transmit end and a receive end, wherein the first RTT is an initial RTT whose duration is from a moment when the transmit end sends an initial data packet to a moment when the transmit end receives an acknowledgment from the receive end; the method being characterizing in: adding, by the transmit end, a first tag to the plurality of data packets sent in the first RTT, wherein the first tag is used to indicate a data packet that is sent in the first RTT; determining, by the transmit end, a quantity of data packets that are successfully received by the receive end and that are in the plurality of data packets sent in the first RTT; determining, by the transmit end based on a determined quantity of the data packets that are successfully received, a quantity or a sending rate of data packets sent in a second RTT; sending, by the transmit end, one or more data packets in the second RTT based on a determined quantity or sending rate of the sent data packets; and adding, by the transmit end, a second tag to the one or more data packets sent in the second RTT, wherein the second tag is used to indicate a data packet that is not sent in the first RTT. adding, by the transmit end, a first tag to the plurality of data packets sent in the first RTT, wherein the first tag is used to indicate a data packet that is sent in the first RTT; determining, by the transmit end, a quantity of data packets that are successfully received by the receive end and that are in the plurality of data packets sent in the first RTT; determining, by the transmit end based on a determined quantity of the data packets that are successfully received, a quantity or a sending rate of data packets sent in a second RTT; sending, by the transmit end, one or more data packets in the second RTT based on a determined quantity or sending rate of the sent data packets; and adding, by the transmit end, a second tag to the one or more data packets sent in the second RTT, wherein the second tag is used to indicate a data packet that is not sent in the first RTT.
A C-axis unit for a machine tool, comprising a bushing adapted to be fixed to a unit support of a machine tool at a lower end of the unit support, said bushing extending along a vertical axis when fixed to the unit support of the machine tool, a head mounting platform adapted to receive an operating head, said head mounting platform being supported by the bushing and being rotatable relative to the bushing around said vertical axis, a platform rotation motor supported by the bushing and configured to control the rotation of the head mounting platform, and a spindle motor configured to control the rotation of a tool-carrying spindle on the operating head through a driving extension arranged in a through-bore obtained through the head mounting platform, the C-axis unit being characterized in that the spindle motor is fixed to and is rotationally integral with the head mounting platform. a bushing adapted to be fixed to a unit support of a machine tool at a lower end of the unit support, said bushing extending along a vertical axis when fixed to the unit support of the machine tool, a head mounting platform adapted to receive an operating head, said head mounting platform being supported by the bushing and being rotatable relative to the bushing around said vertical axis, a platform rotation motor supported by the bushing and configured to control the rotation of the head mounting platform, and a spindle motor configured to control the rotation of a tool-carrying spindle on the operating head through a driving extension arranged in a through-bore obtained through the head mounting platform, the C-axis unit being characterized in that the spindle motor is fixed to and is rotationally integral with the head mounting platform.
A system comprising (i) a luminescent body and (ii) a two-phase cooling device, wherein the two-phase cooling device has a device wall, wherein the device wall defines an chamber, wherein the device wall comprises a tapering section comprising a contact region, wherein the tapering section tapers to the contact region, wherein the luminescent body is thermally coupled to the contact region, and wherein the device wall has a first thickness di at the contact region, wherein di is selected from the range of 0.15 - 0.35 mm.
Method for estimating the end of lifetime for a power semiconductor device, such as an IGBT power module, comprising the steps of; · establishing the temperature of the power semiconductor device, · determining the voltage drop over the power semiconductor device for at least one predetermined current where the current is applied when the power semiconductor device is not in operation, wherein the end of lifetime is established dependent on the change in a plurality of determined voltage drops, and wherein the end of lifetime is established by comparing the plurality of determined voltage drops with a reference data set of voltage drops. · establishing the temperature of the power semiconductor device, · determining the voltage drop over the power semiconductor device for at least one predetermined current where the current is applied when the power semiconductor device is not in operation,
A pixel cell comprising: a photo-conversion device at a surface of a substrate; a first transistor coupled to the photo-conversion device, said first transistor having a gate electrode and a gate insulator, wherein the gate insulator is located over the gate electrode; a floating diffusion region coupled to the first transistor; a first insulating material over the photo-conversion device and the first transistor, and a second insulating material in contact with a surface of the photo conversion device and below the first insulating layer, wherein the first insulating material is in contact with the floating diffusion region; the first insulating material having a first opening over the gate electrode of the first transistor, and wherein the first insulating material has a second opening over a portion of the floating diffusion region; a first conductor extending through the first opening and the gate insulator of the first transistor, wherein the first conductor is in direct contact with the gate electrode of the first transistor; a second conductor extending through the second opening of the first insulating material and in direct contact with the floating diffusion region underneath the second opening, wherein the first and second conductors comprise a polysilicon comprising material; and a conductive material over and in contact with the polysilicon comprising material of the first and second conductors, the conductive material comprising at least one of a silicide and a refractory metal. a photo-conversion device at a surface of a substrate; a first transistor coupled to the photo-conversion device, said first transistor having a gate electrode and a gate insulator, wherein the gate insulator is located over the gate electrode; a floating diffusion region coupled to the first transistor; a first insulating material over the photo-conversion device and the first transistor, and a second insulating material in contact with a surface of the photo conversion device and below the first insulating layer, wherein the first insulating material is in contact with the floating diffusion region; the first insulating material having a first opening over the gate electrode of the first transistor, and wherein the first insulating material has a second opening over a portion of the floating diffusion region; a first conductor extending through the first opening and the gate insulator of the first transistor, wherein the first conductor is in direct contact with the gate electrode of the first transistor; a second conductor extending through the second opening of the first insulating material and in direct contact with the floating diffusion region underneath the second opening, wherein the first and second conductors comprise a polysilicon comprising material; and a conductive material over and in contact with the polysilicon comprising material of the first and second conductors, the conductive material comprising at least one of a silicide and a refractory metal.
A control apparatus for a hybrid vehicle, the hybrid vehicle including an engine, a first motor, a second motor, a storage device, a first rotating element, a second rotating element, a third rotating element, an output member, a power split mechanism and a clutch, the first motor and the second motor respectively having an electricity generating function, the storage device supplying electric power for driving the first motor and the second motor and being charged with electric power generated by at least one of the first motor and the second motor, the first rotating element being coupled to the engine via the clutch, the second rotating element being coupled to the first motor, the third rotating element being coupled to the output member and the second motor, the power split mechanism producing a differential action in the first rotating element, the second rotating element and the third rotating element, and the clutch being provided in a power transmission path leading from the engine to drive wheels, the clutch transmitting torque between the engine and the drive wheels when engaged, the clutch interrupting the transmission of torque between the engine and the drive wheels when released, the control apparatus characterized by comprising: an ECU configured to execute drive control for consuming electric power of the storage device by driving the first motor, when the clutch is kept in a released state and the clutch cannot be engaged and an amount of electrical charge of the storage device is higher than a prescribed first threshold value.
A graphene structure comprising: a first supporting layer; a first graphene on the first supporting layer; a second supporting layer on the first graphene; and a second graphene on the second supporting layer. wherein the first and second supporting layers are formed of Ge or include a Ge coating on upper surfaces thereof. a first supporting layer; a first graphene on the first supporting layer; a second supporting layer on the first graphene; and a second graphene on the second supporting layer. wherein the first and second supporting layers are formed of Ge or include a Ge coating on upper surfaces thereof.
Unipartite component for a magnetic actuator, in particular a magnetic valve, comprising: - an inner pole, - a magnetic sleeve, and - a non-magnetic separating sleeve, - wherein the inner pole, the magnetic sleeve and the separating sleeve are integrated into the unipartite component, characterized in that the separating sleeve has a radially directed first wall region and has a radially directed second wall region, and in that the inner pole is arranged between the first wall region and the second wall region. - an inner pole, - a magnetic sleeve, and - a non-magnetic separating sleeve, - wherein the inner pole, the magnetic sleeve and the separating sleeve are integrated into the unipartite component,
A container for transport of aggregate material comprising a containing structure provided with: - a predetermined number of lower rest elements; - at least two opposite lateral walls (6, 7) and - at least two opposite head walls (8, 9), the lateral walls (6, 7) and the head walls (8, 9) defining, in cooperation, an internal housing space; characterised in that it further comprises - at least a separating wall located internally of the housing space and constrained to at least one of the lateral and head walls (6, 7, 8, 9) for dividing the housing space at least into a containing compartment located superiorly and an unloading compartment located inferiorly and in communication with the containing compartment by means of at least a passage opening; and - a opening/closing device for selectively placing the containing compartment in communication with the unloading compartment, the device being mobile between at least a first transport condition in which it does not enable passage of material from the containing chamber to the unloading compartment through the passage opening and a second unloading condition in which it enables passage of material from the containing compartment to the unloading compartment. - a predetermined number of lower rest elements; - at least two opposite lateral walls (6, 7) and - at least two opposite head walls (8, 9), the lateral walls (6, 7) and the head walls (8, 9) defining, in cooperation, an internal housing space; characterised in that it further comprises - at least a separating wall located internally of the housing space and constrained to at least one of the lateral and head walls (6, 7, 8, 9) for dividing the housing space at least into a containing compartment located superiorly and an unloading compartment located inferiorly and in communication with the containing compartment by means of at least a passage opening; and - a opening/closing device for selectively placing the containing compartment in communication with the unloading compartment, the device being mobile between at least a first transport condition in which it does not enable passage of material from the containing chamber to the unloading compartment through the passage opening and a second unloading condition in which it enables passage of material from the containing compartment to the unloading compartment.
Method for blood vessel image extraction from ultrasound signals, comprising the steps of: - obtaining (101, 201, 301a) a set of ultrasound signals s( r i, t j) of biological tissue of a living subject comprising blood vessels, the set comprising ultrasound signals at successive times t j in a plurality of spatial points r i; - decomposing (102, 202, 302) the set of ultrasound signals as a sum of multiple terms s r i t j = ∑ k = 1 N λ k p k r i a k t j wherein each term consists of a time-independent spatial component image factor p k and a space-independent temporal component signal factor λ k a k, wherein the spatial component images p k are mutually orthonormal, and wherein the temporal component signals λ k a k are mutually orthogonal; - determining (103, 203, 303) a sharpened spatial image q k for each spatial component image p k of multiple spatial component images; - generating (104, 204, 304) a processed image I being a bilinear combination of multiple sharpened spatial images q k with weight coefficients β k,l: I r i = ∑ k, l = n f ≥ 1 N β k, l q k r i q l * r i, - obtaining (101, 201, 301a) a set of ultrasound signals s( r i, t j) of biological tissue of a living subject comprising blood vessels, the set comprising ultrasound signals at successive times t j in a plurality of spatial points r i; - decomposing (102, 202, 302) the set of ultrasound signals as a sum of multiple terms s r i t j = ∑ k = 1 N λ k p k r i a k t j wherein each term consists of a time-independent spatial component image factor p k and a space-independent temporal component signal factor λ k a k, wherein the spatial component images p k are mutually orthonormal, and wherein the temporal component signals λ k a k are mutually orthogonal; - determining (103, 203, 303) a sharpened spatial image q k for each spatial component image p k of multiple spatial component images; - generating (104, 204, 304) a processed image I being a bilinear combination of multiple sharpened spatial images q k with weight coefficients β k,l: I r i = ∑ k, l = n f ≥ 1 N β k, l q k r i q l * r i,
A curtain airbag for a vehicle, characterized by comprising: an airbag main body, the airbag main body defining an air chamber; and a strip-shaped component, abutting the airbag main body, wherein the strip-shaped component is electrically conductive, and is configured to deform or break when the airbag main body is twisted so that the electrical resistance of the strip-shaped component changes. an airbag main body, the airbag main body defining an air chamber; and a strip-shaped component, abutting the airbag main body, wherein the strip-shaped component is electrically conductive, and is configured to deform or break when the airbag main body is twisted so that the electrical resistance of the strip-shaped component changes.
A method of reducing a noise level within a compartment of a railway vehicle affected by noise-producing equipment items (2, 3), the method including: providing a sound database which relates operational states of the vehicle to respective noise signatures produced by the equipment items; determining the present operational state of the railway vehicle; selecting one or more noise signatures from the database corresponding to the present operational state; creating a noise cancellation signal from the selected noise signatures; and transmitting the noise cancellation signal into the compartment by one or more speakers distributed through the compartment to reduce the noise level within the compartment. providing a sound database which relates operational states of the vehicle to respective noise signatures produced by the equipment items; determining the present operational state of the railway vehicle; selecting one or more noise signatures from the database corresponding to the present operational state; creating a noise cancellation signal from the selected noise signatures; and transmitting the noise cancellation signal into the compartment by one or more speakers distributed through the compartment to reduce the noise level within the compartment.
Method for the production of a biological compound of interest comprising culturing a filamentous fungal host cell deficient in an essential gene, comprising a vector, said vector comprising at least said essential gene and an autonomous replication sequence, wherein the host cell comprises a recombinant polynucleotide construct comprising a polynucleotide encoding a biological compound of interest or a compound involved in the synthesis of a biological compound of interest under conditions conducive to the production of the biological compound of interest and isolating the compound of interest from the culture broth, wherein a recombinant polynucleotide construct encoding the biological compound of interest or a compound involved in the synthesis of the biological compound of interest is located on said vector.
A driver's cab for an industrial truck with - a driver's canopy supported by four pillars, of which two are designed as A-pillars (18a, 18b) and two are designed as B-pillars (20a, 20b), - wherein one side wall in each case extends between one of the A-pillars (18a, 18b) and one of the B-pillars (20a, 20b), an end wall extends between the B-pillars (20a, 20b), and an entry region extends between the A-pillars (18a, 18b), - the B-pillars (20a, 20b) are each formed from a tubular profile and at least one of the A-pillars (18a, 18b) is formed from a corner profile which has two legs arranged at an angle to each other. - a driver's canopy supported by four pillars, of which two are designed as A-pillars (18a, 18b) and two are designed as B-pillars (20a, 20b), - wherein one side wall in each case extends between one of the A-pillars (18a, 18b) and one of the B-pillars (20a, 20b), an end wall extends between the B-pillars (20a, 20b), and an entry region extends between the A-pillars (18a, 18b), - the B-pillars (20a, 20b) are each formed from a tubular profile and at least one of the A-pillars (18a, 18b) is formed from a corner profile which has two legs arranged at an angle to each other.