mhurhangee/ep-ind-claims huggingface dataset:
A method for identifying at least one type of white blood cell within a whole blood sample, comprising the steps of: adding at least one colorant to the whole blood sample, which colorant is operable to differentially identify at least one WBC type from another WBC type; disposing the blood sample into a chamber defined by at least one transparent panel (52, 54); providing a fluorescent excitation light and one or more transmission lights; receiving both light fluorescing from the sample and light transmitted through the sample and producing signals representative of the fluorescence and transmittance of the received light; creating at least one image of the sample quiescently residing within the chamber using said signals; identifying WBCs within the sample image; quantitatively analyzing at least some of the identified WBCs within the image, including determining one or more quantitative values representative of one or more predetermined quantitatively determinable features, wherein each quantitative value is based on one or more values of light intensity, light color, optical density, area or geometric shape, and comparing each quantitative value against a reference value; and identifying at least one type of WBC from the identified WBCs using the comparison of each quantitative value against its reference value. adding at least one colorant to the whole blood sample, which colorant is operable to differentially identify at least one WBC type from another WBC type; disposing the blood sample into a chamber defined by at least one transparent panel (52, 54); providing a fluorescent excitation light and one or more transmission lights; receiving both light fluorescing from the sample and light transmitted through the sample and producing signals representative of the fluorescence and transmittance of the received light; creating at least one image of the sample quiescently residing within the chamber using said signals; identifying WBCs within the sample image; quantitatively analyzing at least some of the identified WBCs within the image, including determining one or more quantitative values representative of one or more predetermined quantitatively determinable features, wherein each quantitative value is based on one or more values of light intensity, light color, optical density, area or geometric shape, and comparing each quantitative value against a reference value; and identifying at least one type of WBC from the identified WBCs using the comparison of each quantitative value against its reference value.
A method to measure network packet latency, comprising: receiving packets at a first input port associated with a first point within a network packet communication system; receiving packets at a second input port associated with a second point within the network packet communication system; and for each received packet: generating a packet signature for the packet; comparing the packet signature to packet signatures stored in a signature table; if a signature match is not found, storing the packet signature within the signature table along with a timestamp associated with the received packet; and if a signature match is found, determining a latency value for the received packet based upon a timestamp associated with the received packet and a timestamp associated with the matching packet signature within the signature table; wherein the received packets comprise request packets received at the first input port and response packets received at the second input port and associated with the request packets, and wherein matching packet signatures are configured to pair a response packet to its associated request packet. receiving packets at a first input port associated with a first point within a network packet communication system; receiving packets at a second input port associated with a second point within the network packet communication system; and for each received packet: generating a packet signature for the packet; comparing the packet signature to packet signatures stored in a signature table; if a signature match is not found, storing the packet signature within the signature table along with a timestamp associated with the received packet; and if a signature match is found, determining a latency value for the received packet based upon a timestamp associated with the received packet and a timestamp associated with the matching packet signature within the signature table; generating a packet signature for the packet; comparing the packet signature to packet signatures stored in a signature table; if a signature match is not found, storing the packet signature within the signature table along with a timestamp associated with the received packet; and if a signature match is found, determining a latency value for the received packet based upon a timestamp associated with the received packet and a timestamp associated with the matching packet signature within the signature table; wherein the received packets comprise request packets received at the first input port and response packets received at the second input port and associated with the request packets, and wherein matching packet signatures are configured to pair a response packet to its associated request packet.
A method executed by a master base station in a wireless communication system, the method comprising: receiving (435, 515) measurement information from a terminal; transmitting (450, 525), to a secondary base station, a first message including measurement result for a secondary cell group, SCG, of the secondary base station based on the measurement information; receiving (465, 540), from the secondary base station, a second message including information on a SCG configuration, the information on the SCG configuration including information on a primary secondary cell, PSCell, of the SCG; and transmitting (470, 540), to the terminal, a third message including the information on the PSCell, wherein the information on the PSCell includes a physical cell identifier of the PSCell, an SCell index of the PSCell and configuration information on a physical uplink control channel, PUCCH, of the PSCell. receiving (435, 515) measurement information from a terminal; transmitting (450, 525), to a secondary base station, a first message including measurement result for a secondary cell group, SCG, of the secondary base station based on the measurement information; receiving (465, 540), from the secondary base station, a second message including information on a SCG configuration, the information on the SCG configuration including information on a primary secondary cell, PSCell, of the SCG; and transmitting (470, 540), to the terminal, a third message including the information on the PSCell, wherein the information on the PSCell includes a physical cell identifier of the PSCell, an SCell index of the PSCell and configuration information on a physical uplink control channel, PUCCH, of the PSCell.
A method performed by an apparatus, and comprising: receiving a first configuration for a physical downlink control channel with an orthogonal frequency division multiplexing format, said first configuration having a first search space associated with a first control resource set; receiving a second configuration for a physical downlink control channel with a single-carrier format, said second configuration having a second search space associated with a second control resource set; monitoring a physical downlink control channel according to the first and second configurations; and when the physical downlink control channel having the first or second configuration is detected, determining a waveform for at least one time instant based on a configuration of the detected physical downlink control channel, wherein the determined waveform is an orthogonal frequency division multiplexing waveform when the detected physical downlink control channel has the first configuration and the determined waveform is a single-carrier waveform when the detected physical downlink control channel has the second configuration, and wherein resource elements occupied by a demodulation reference signal are common for the first configuration and the second configuration. receiving a first configuration for a physical downlink control channel with an orthogonal frequency division multiplexing format, said first configuration having a first search space associated with a first control resource set; receiving a second configuration for a physical downlink control channel with a single-carrier format, said second configuration having a second search space associated with a second control resource set; monitoring a physical downlink control channel according to the first and second configurations; and when the physical downlink control channel having the first or second configuration is detected, determining a waveform for at least one time instant based on a configuration of the detected physical downlink control channel, wherein the determined waveform is an orthogonal frequency division multiplexing waveform when the detected physical downlink control channel has the first configuration and the determined waveform is a single-carrier waveform when the detected physical downlink control channel has the second configuration, and wherein resource elements occupied by a demodulation reference signal are common for the first configuration and the second configuration.
A computing system comprising: a processor configured to receive a request to store a data object within an in-memory database, and determine a category type associated with the data object from among a plurality of category types based on an attribute of the data object, the attribute including a data type of the data object; and a storage including a main memory (220; 320; 410) storing a plurality of memory pools (222-224; 322-326; 412-416), wherein the storage is configured to store the data object via a memory pool corresponding to the determined category from among the plurality of memory pools (222-224; 322-326; 412-416) corresponding to the plurality of respective categories, where the processor is configured to allocate a first category type of data object to a first memory pool (222; 322; 412) locked to physical memory of the main memory (220; 320; 410) in the storage and allocate a second category type of data object to a second memory pool (224; 326; 416) in the storage that is swapped out to disk (230; 340; 430) over time; wherein memory management for the database is performed by an operating system, and wherein the operating system (210; 310) locks all data stored in the first memory pool to the physical memory of the main memory. a processor configured to receive a request to store a data object within an in-memory database, and determine a category type associated with the data object from among a plurality of category types based on an attribute of the data object, the attribute including a data type of the data object; and a storage including a main memory (220; 320; 410) storing a plurality of memory pools (222-224; 322-326; 412-416), wherein the storage is configured to store the data object via a memory pool corresponding to the determined category from among the plurality of memory pools (222-224; 322-326; 412-416) corresponding to the plurality of respective categories, where the processor is configured to allocate a first category type of data object to a first memory pool (222; 322; 412) locked to physical memory of the main memory (220; 320; 410) in the storage and allocate a second category type of data object to a second memory pool (224; 326; 416) in the storage that is swapped out to disk (230; 340; 430) over time; wherein memory management for the database is performed by an operating system, and wherein the operating system (210; 310) locks all data stored in the first memory pool to the physical memory of the main memory.
A drug dispenser device comprising (a) a housing (10a,10b,12); (b) extending from said housing (10a,10b,12), an outlet for insertion into a body cavity of a patient; (c) provided to the housing (10a,10b,12) and moveable with respect thereto, a drug discharge device, said drug discharge device having a longitudinal axis and comprising a container for storing a drug formulation to be dispensed, a discharge mechanism and a discharge channel from said container for discharge of said drug formulation to said outlet; (d) connecting to the drug discharge device, a container collar; (e) connecting to said container collar and moveable with respect thereto along the longitudinal axis of the drug discharge device, a transfer element, said transfer element including an actuating portion; (f) provided to the housing (10a, 10b, 12), at least one finger operable member (20a, 20b) moveable to apply a force to said actuating portion of said transfer element to move the transfer element along the longitudinal axis in a first direction; (g) connecting the container collar with the transfer element, a biasing mechanism to store biasing energy on moving the transfer element along the longitudinal axis in the first direction; and (h) provided to the container collar, a pre-load mechanism to prevent transfer of said biasing energy to the container collar to move said drug discharge device along the longitudinal axis in the first direction to actuate the discharge mechanism until a pre-determined threshold force is overcome wherein the biasing mechanism comprises an arrangement of two extension springs (50a, 50b) locating one on either side of the container collar. (a) a housing (10a,10b,12); (b) extending from said housing (10a,10b,12), an outlet for insertion into a body cavity of a patient; (c) provided to the housing (10a,10b,12) and moveable with respect thereto, a drug discharge device, said drug discharge device having a longitudinal axis and comprising a container for storing a drug formulation to be dispensed, a discharge mechanism and a discharge channel from said container for discharge of said drug formulation to said outlet; (d) connecting to the drug discharge device, a container collar; (e) connecting to said container collar and moveable with respect thereto along the longitudinal axis of the drug discharge device, a transfer element, said transfer element including an actuating portion; (f) provided to the housing (10a, 10b, 12), at least one finger operable member (20a, 20b) moveable to apply a force to said actuating portion of said transfer element to move the transfer element along the longitudinal axis in a first direction; (g) connecting the container collar with the transfer element, a biasing mechanism to store biasing energy on moving the transfer element along the longitudinal axis in the first direction; and (h) provided to the container collar, a pre-load mechanism to prevent transfer of said biasing energy to the container collar to move said drug discharge device along the longitudinal axis in the first direction to actuate the discharge mechanism until a pre-determined threshold force is overcome
Use of a feed composition comprising a high oleic acid oil for increasing meat quality in pigs, cattle and poultry, wherein said meat quality is improved by reducing drip loss in meat from pigs, cattle and poultry, wherein said feed composition is fed to the animals in an amount of from 2 to 15% on the total feed.
Refrigeration device, in particular household refrigeration device, having a first storage chamber and a second storage chamber, an evaporation chamber which is accommodated in a dividing wall between the storage chambers (2, 3) and is separated from the first storage chamber by a thermal barrier layer and from the second storage chamber by a shell, an evaporator arranged in the evaporator chamber, wherein the storage chambers (2, 3) are cooled by exchanging air with the evaporator chamber, wherein in the evaporator chamber upstream of an inflow side of the evaporator an inlet volume is kept free which communicates with the first storage chamber via first intake openings and with the second storage chamber via second intake openings, wherein a guide rib extends in the inlet volume in the longitudinal direction of the inflow side and from a wall opposite the inflow side to the inflow side and the inlet volume divides into two partial spaces (33, 35) elongated along the inflow side, wherein the first and second intake openings (27, 29) are arranged on different sides of the guide rib and in the second partial space the second intake openings are opposite the inflow side, wherein the first intake openings are arranged at longitudinal ends of the first partial space, characterised in that the thermal barrier effect of the shell is weaker than that of the thermal barrier layer, and in that the guide rib prevents a turbulent mixing of the air flows from the first and the second storage chamber (2, 3) in the inlet volume.
An acetabular implant kit for positioning in an anatomy, the kit comprising: a shell having, a shell wall that extends from a proximal apex portion to a distal rim defining a passage operable to receive a liner, wherein the shell wall has an internal shell wall surface defining an internal void and an external shell wall surface operable to engage the anatomy; an anti-rotation mechanism (233, 235) formed by the distal rim of the shell; a taper connection mechanism formed in the shell near the distal rim; and a snap connection mechanism (222, 344, 344') spaced apart from the taper connection and formed at least in part by an apical wall defining an apical bore extending from the internal shell wall surface towards the external shell wall surface near the proximal apex portion wherein the snap connection mechanism is formed in the apical bore; a first liner having a first liner wall extending from a first liner distal rim, a first liner connection defined as a complementary taper operable to engage the taper connection mechanism; and a second liner having a second liner wall extending from a second liner proximal apex, a second liner complementary snap connection (208, 334, 432) at the second liner proximal apex operable to engage the snap connection mechanism; wherein the first liner and the second liner are axially insertable into the shell without need for rotating the first liner, the second liner, or the shell. a shell having, a shell wall that extends from a proximal apex portion to a distal rim defining a passage operable to receive a liner, wherein the shell wall has an internal shell wall surface defining an internal void and an external shell wall surface operable to engage the anatomy; an anti-rotation mechanism (233, 235) formed by the distal rim of the shell; a taper connection mechanism formed in the shell near the distal rim; and a snap connection mechanism (222, 344, 344') spaced apart from the taper connection and formed at least in part by an apical wall defining an apical bore extending from the internal shell wall surface towards the external shell wall surface near the proximal apex portion wherein the snap connection mechanism is formed in the apical bore; a first liner having a first liner wall extending from a first liner distal rim, a first liner connection defined as a complementary taper operable to engage the taper connection mechanism; and a second liner having a second liner wall extending from a second liner proximal apex, a second liner complementary snap connection (208, 334, 432) at the second liner proximal apex operable to engage the snap connection mechanism; wherein the first liner and the second liner are axially insertable into the shell without need for rotating the first liner, the second liner, or the shell.
A method for measuring a Rotor Position Transducer signal offset with respect to reference points in the rotor-stator geometry in an electrical machine comprising pairs of adjacent phases; the method comprising the steps of: a) an initial step, comprising applying a controlled voltage of a predetermined maximum duty cycle value to a first phase, and simultaneously applying a controlled voltage of a predetermined minimum value to a phase adjacent the first phase; b) a voltage walk-up step, comprising increasing the duty cycle being applied to the phase adjacent to the first phase in predefined steps until the duty cycle being applied to the phase adjacent the first phase reaches the predetermined maximum value; c) a voltage walk down step, comprising decreasing the duty cycle being applied to the first phase in predefined steps until the duty cycle being applied to the first phase reaches zero; d) repeating the above steps a) to c) for each pair of adjacent phases of the electrical machine; e) when RPT signal transition occurs, using encoder means to determine the RPT signal offset for each rotor pole (α1, α2, β1, β2) of the electrical machine. a) an initial step, comprising applying a controlled voltage of a predetermined maximum duty cycle value to a first phase, and simultaneously applying a controlled voltage of a predetermined minimum value to a phase adjacent the first phase; b) a voltage walk-up step, comprising increasing the duty cycle being applied to the phase adjacent to the first phase in predefined steps until the duty cycle being applied to the phase adjacent the first phase reaches the predetermined maximum value; c) a voltage walk down step, comprising decreasing the duty cycle being applied to the first phase in predefined steps until the duty cycle being applied to the first phase reaches zero; d) repeating the above steps a) to c) for each pair of adjacent phases of the electrical machine; e) when RPT signal transition occurs, using encoder means to determine the RPT signal offset for each rotor pole (α1, α2, β1, β2) of the electrical machine.
Method for producing sacks, in which stacks (27, 69) of sacks or semi-finished sack products (23, 25) are transported from a first machine (20, 50, 70) to a second machine (20, 50, 70), - in which stacks (27, 69) of sacks or semi-finished sack products(23, 25) are guided across a plurality of belts (106, 107, 108, 110) which are assigned to a storage and transportation device (28, 66), and - in which part of the belts (106, 107, 108, 110) of this storage and transportation device (28, 66) are employed as collection or delivery belts (106, 107, 108, 110) for successively collecting and for successively delivering stacks (27, 69) in that the respective belts (106, 107, 108, 110) are moved in an intermittent manner by path portions which are adapted to the expansion of individual stacks (27, 66) in the conveying direction (z) until the collection or delivery belt (106, 107, 108, 110) is filled or emptied, and - in which at least one of the belts (107, 108, 110) which is/are downstream of the first belt which follows on from the first machine collects at least two stacks (27, 66), characterized - in that the first belt at least temporarily is not used as a collection belt. - in which stacks (27, 69) of sacks or semi-finished sack products(23, 25) are guided across a plurality of belts (106, 107, 108, 110) which are assigned to a storage and transportation device (28, 66), and - in which part of the belts (106, 107, 108, 110) of this storage and transportation device (28, 66) are employed as collection or delivery belts (106, 107, 108, 110) for successively collecting and for successively delivering stacks (27, 69) in that the respective belts (106, 107, 108, 110) are moved in an intermittent manner by path portions which are adapted to the expansion of individual stacks (27, 66) in the conveying direction (z) until the collection or delivery belt (106, 107, 108, 110) is filled or emptied, and - in which at least one of the belts (107, 108, 110) which is/are downstream of the first belt which follows on from the first machine collects at least two stacks (27, 66), - in that the first belt at least temporarily is not used as a collection belt.