mhurhangee/ep-ind-claims huggingface dataset:
A method for communicating compressed and uncompressed content over a transport layer connection established by an appliance between a client and a server, the method comprising the steps of: (a) establishing, by an appliance, a transport layer connection between a client and a server; (b) receiving, by the appliance, a first response from the server to a first client request, and a second response from the server to a second client request, the first response and the second response comprising a plurality of uncompressed data objects; (c) transmitting, by the appliance, the first response to the client; (d) identifying, by the appliance and responsive to a compression policy, a first type of compression from a plurality of compression types for compressing a first object of the plurality of uncompressed data objects in the second response to the client and a second type of compression from the plurality of compression types for compressing a second object of the plurality of uncompressed data objects in the second response to the client, the compression policy identifying the first type of compression based on the content or type of the first object, and identifying the second type of compression based on a protocol of the second object of the plurality of uncompressed data objects; (e) compressing, by the appliance, the first object in the second response based on the identified first compression type and the second object in the second response based on the identified second compression type; and (f) transmitting, by the appliance, the compressed second response to the client. (a) establishing, by an appliance, a transport layer connection between a client and a server; (b) receiving, by the appliance, a first response from the server to a first client request, and a second response from the server to a second client request, the first response and the second response comprising a plurality of uncompressed data objects; (c) transmitting, by the appliance, the first response to the client; (d) identifying, by the appliance and responsive to a compression policy, a first type of compression from a plurality of compression types for compressing a first object of the plurality of uncompressed data objects in the second response to the client and a second type of compression from the plurality of compression types for compressing a second object of the plurality of uncompressed data objects in the second response to the client, the compression policy identifying the first type of compression based on the content or type of the first object, and identifying the second type of compression based on a protocol of the second object of the plurality of uncompressed data objects; (e) compressing, by the appliance, the first object in the second response based on the identified first compression type and the second object in the second response based on the identified second compression type; and (f) transmitting, by the appliance, the compressed second response to the client.
A method comprising: in response to a read operation request, selecting a particular sensing delay from a first sensing delay or a second sensing delay, wherein the second sensing delay is longer than the first sensing delay; and sending a signal to a sense amplifier to cause the sense amplifier to sense at least one data value of a first row of a first memory array according to the particular sensing delay, the first memory array comprising a first plurality of rows, wherein the particular sensing delay is selected based on delay data stored in a first row of a second memory array comprising a second plurality of rows, and wherein each row of the second memory array corresponds to a respective row of the first memory array and stores the delay data corresponding to the respective row of the first memory array. in response to a read operation request, selecting a particular sensing delay from a first sensing delay or a second sensing delay, wherein the second sensing delay is longer than the first sensing delay; and sending a signal to a sense amplifier to cause the sense amplifier to sense at least one data value of a first row of a first memory array according to the particular sensing delay, the first memory array comprising a first plurality of rows, wherein the particular sensing delay is selected based on delay data stored in a first row of a second memory array comprising a second plurality of rows, and wherein each row of the second memory array corresponds to a respective row of the first memory array and stores the delay data corresponding to the respective row of the first memory array.
Sensor module for generating a control signal prior to the start of an aircraft comprising an onboard electrical system sensor for an electromagnetic field emitted from the onboard electrical system of the aircraft, characterized in that the sensor module additionally comprises an ATC sensor for an ATC signal emitted from this aircraft into its interior, wherein the sensor module is configured to generate the control signal when one of the following events occurs: the onboard electrical system sensor detects a signal (I VFG) of the onboard electrical system above a threshold value (S VFG); the ATC sensor detects a 1090 MHz ATC-Signal (I ATC) above a threshold (S ATC) of -17 dB to -29 dB, wherein the onboard electrical system sensor comprises a spectrum analyzer for the frequency band of 370 - 770 Hz, within which the onboard electrical system is operated, and a sensor for the electrical component of the electromagnetic field and a sensor for the magnetic component of the electromagnetic field. the onboard electrical system sensor detects a signal (I VFG) of the onboard electrical system above a threshold value (S VFG); the ATC sensor detects a 1090 MHz ATC-Signal (I ATC) above a threshold (S ATC) of -17 dB to -29 dB, wherein the onboard electrical system sensor comprises a spectrum analyzer for the frequency band of 370 - 770 Hz, within which the onboard electrical system is operated, and a sensor for the electrical component of the electromagnetic field and a sensor for the magnetic component of the electromagnetic field.
Conveyor belt scale for transporting piece goods, having an infeed belt, a weighing belt and a discharge belt, wherein the weighing belt is supported on a weighing cell which detects the weight of piece goods transported via the weighing belt, wherein the conveyor belt scale comprises a metal detector which comprises at least one transmitter coil (54, 56) and at least one receiver coil (54, 56), and wherein the conveyor belt scale comprises a conveyor belt which comprises a belt body about which a conveyor belt is guided in a revolving manner by way of deflection rollers (42, 44) assembled at the beginning and at the end, characterized in that the at least one transmitter coil (54, 56) and the at least one receiver coil (54, 56) are in each case embodied as a planar coil (60, 62, 74, 76, 80, 84) and in each case located in a plane which extends parallel to the upper lead of the conveyor belt and thus parallel to the conveying direction, and in that at least one coil of the metal detector is integrated in the belt body between the upper lead and the lower lead of the conveyor belt.
A feed unit comprising a guide member and a plurality of pushers arranged to push components along a path defined by the guide member for output from the feed unit, characterized in that 2. the guide member comprises a surface and a groove in said surface, in which components are received, to guide components along said path, wherein at least a part of the guide member comprises oppositely arranged grooves (42, 57) and recesses (55, 58) within the grooves (42, 57) to define a channel through which components are pushed, wherein the guide member comprises a separator arranged to separate the components into separate streams according to their orientation, wherein the path defined by the guide member splits into a first portion and second portion to separate the components into separate streams according to their orientation, and wherein the first portion of the path comprises said grooves (42, 57) and only the recess within the groove such that the first portion of the path is shaped to only accept components having a first orientation and the second portion of the path comprises said grooves (42, 57) and only the recess within the groove such that the second portion of the path is shaped to only accept components having a second orientation.
A composition for use in a method for protecting a kidney from renal fibrosis associated with prerenal acute renal injury or intrinsic acute renal injury in a subject in need thereof, the composition comprising an effective amount of a peptide selected from the group consisting of Phe-D-Arg-Phe-Lys-NH 2 and D-Arg-2'6'Dmt-Lys-Phe-NH 2.
A mobile station that communicates with a radio base station (eNB) using equal to or greater than two carriers, wherein the equal to or greater than two carriers include a first carrier and a second carrier wherein the first carrier and the second carrier belong to the same frequency band, the mobile station comprising: a) a first communicating unit configured to perform communication with the first carrier; and b) a second carrier measuring unit configured to perform measurement of the second carrier, c1) wherein in a case where a measurement gap set in the first carrier for measuring the second carrier is set, the first communicating unit is configured to perform communication with the first carrier without considering the measurement gap when the second carrier is activated, and c2) wherein the first communication unit is further configured not to perform communication with the first carrier in the measurement gap when the second carrier is not activated. a) a first communicating unit configured to perform communication with the first carrier; and b) a second carrier measuring unit configured to perform measurement of the second carrier, c1) wherein in a case where a measurement gap set in the first carrier for measuring the second carrier is set, the first communicating unit is configured to perform communication with the first carrier without considering the measurement gap when the second carrier is activated, and c2) wherein the first communication unit is further configured not to perform communication with the first carrier in the measurement gap when the second carrier is not activated.
An extender jumper system for a subsea field, comprising: an extender jumper assembly, comprising: a first flowline; a first connector comprising a first central axis, wherein the first connector is positioned at a first end of the first flowline in an axially downward orientation to facilitate attachment between the first connector and a first subsea structure; and a second connector comprising a second central axis, wherein the second connector is positioned at a second end of the first flowline; and a support assembly configured to couple the extender jumper assembly to a support structure within the subsea field and to support the second connector in an axially upward orientation in which the second central axis is substantially parallel to the first central axis to facilitate attachment between the second connector and a corresponding connector of another extender jumper or a jumper. an extender jumper assembly, comprising: a first flowline; a first connector comprising a first central axis, wherein the first connector is positioned at a first end of the first flowline in an axially downward orientation to facilitate attachment between the first connector and a first subsea structure; and a second connector comprising a second central axis, wherein the second connector is positioned at a second end of the first flowline; and a first flowline; a first connector comprising a first central axis, wherein the first connector is positioned at a first end of the first flowline in an axially downward orientation to facilitate attachment between the first connector and a first subsea structure; and a second connector comprising a second central axis, wherein the second connector is positioned at a second end of the first flowline; and a support assembly configured to couple the extender jumper assembly to a support structure within the subsea field and to support the second connector in an axially upward orientation in which the second central axis is substantially parallel to the first central axis to facilitate attachment between the second connector and a corresponding connector of another extender jumper or a jumper.
Apparatus for treatment of surfaces of objects functioning as counterelectrode with a plasma which is produced by means of an electrode over a solid dielectric by a dielectric-barrier gas discharge, and having an active surface which is directly adjacent to the plasma during the treatment, wherein the dielectric is formed with a hollow fibre, the lateral wall of which has the active surface, and the active surface has a reversibly variable shape, characterized in that the lateral wall undergoes transition integrally at one end into an end wall that closes the hollow fibre.
Use of compound and compound in a polyolefin composition for increasing the lifetime of a pipe made of said polyolefin composition which pipe is in permanent contact with chlorinated water, wherein compound has the following formula: wherein - R 6, R 7 and R 8 independently are non-substituted or substituted aliphatic or aromatic hydrocarbyl radicals which may comprise OH-groups, - X 1, X 2, and X 3 independently are H or OH, with the proviso that at least one of X 1, X 2 and X 3 is OH, and - the entire molecule does not comprise an ester group, wherein compound has the following formula: wherein R and R' each is the same or different residue and comprising at least 6 carbon atoms. - R 6, R 7 and R 8 independently are non-substituted or substituted aliphatic or aromatic hydrocarbyl radicals which may comprise OH-groups, - X 1, X 2, and X 3 independently are H or OH, with the proviso that at least one of X 1, X 2 and X 3 is OH, and - the entire molecule does not comprise an ester group,
A door handle comprising a door handle case; a first detection electrode and a second detection electrode disposed in the door handle case; and a controller connected to the first detection electrode and the second detection electrode, wherein the controller separately measures a first capacitance between the first detection electrode and an operation body and a second capacitance between the second detection electrode and the operation body, and the controller determines whether an operation is performed by the operation body based on the first capacitance or the second capacitance wherein the controller measures a total capacitance between the first detection electrode and the second detection electrode versus the operation body, and in a case where the total capacitance exceeds another predetermined reference value, the controller separately measures the first capacitance between the first detection electrode and the operation body and the second capacitance between the second detection electrode and the operation body. a door handle case; a first detection electrode and a second detection electrode disposed in the door handle case; and a controller connected to the first detection electrode and the second detection electrode, wherein the controller separately measures a first capacitance between the first detection electrode and an operation body and a second capacitance between the second detection electrode and the operation body, and the controller determines whether an operation is performed by the operation body based on the first capacitance or the second capacitance wherein the controller measures a total capacitance between the first detection electrode and the second detection electrode versus the operation body, and in a case where the total capacitance exceeds another predetermined reference value, the controller separately measures the first capacitance between the first detection electrode and the operation body and the second capacitance between the second detection electrode and the operation body.
An illumination device, comprising: a common substrate, at least two light sources for emitting light beams, at least one micro lens (LI, FAC) configured to collimate said light beams in at least one axis, an illumination modification means mounted on the common substrate and having at least one movable element configured to selectively deflect or cover said collimated light beams, wherein the light sources are configured to emit different colors and mounted at different distances from the micro lens (LI, FAC) to compensate for a refractive index of the micro lens that is dependent on wavelength, wherein the light sources are mounted on a common submount, and wherein the submount and the micro lens (LI, FAC) are mounted on a heatsink interface, which in turn is mounted on the common substrate. a common substrate, at least two light sources for emitting light beams, at least one micro lens (LI, FAC) configured to collimate said light beams in at least one axis, an illumination modification means mounted on the common substrate and having at least one movable element configured to selectively deflect or cover said collimated light beams, wherein the light sources are configured to emit different colors and mounted at different distances from the micro lens (LI, FAC) to compensate for a refractive index of the micro lens that is dependent on wavelength, wherein the light sources are mounted on a common submount, and wherein the submount and the micro lens (LI, FAC) are mounted on a heatsink interface, which in turn is mounted on the common substrate.
A method for efficient response to load variations in a combined cycle power plant, the method comprising the steps of: providing, through a thermal storage tank, a flow path for fluid exiting a gas turbine; said flow path being enabled under predetermined conditions; placing in said flow path a storage medium comprising porous high thermal conductivity heat resistance media; said media defining voids in order to facilitate flow of said fluid in a predetermined direction; said predetermined flow direction constituting a longitudinal direction; arrangement of said media constituting a packed bed; and efficiently responding to a decrease in load by enabling said flow path and providing at least a portion of the fluid exiting the gas turbine to said flow path; the method further comprising dimensions of said media and of said packed bed being selected such that a resultant back pressure to the gas turbine is at most a predetermined back pressure; wherein said particles comprise at least one of alumina, graphite, silica, quartz, or ceramic; wherein said media comprise particles; and wherein the dimensions of said particles are selected such that Biot number magnitude does not exceed 0.1; wherein a ratio of a characteristic dimension of said packed bed in the longitudinal direction to a characteristic dimension of said packed bed in a direction transverse to the longitudinal direction is at most 2.15; the characteristic dimension of said packed bed in the longitudinal direction being between 3.048 m and 4.572 m. providing, through a thermal storage tank, a flow path for fluid exiting a gas turbine; said flow path being enabled under predetermined conditions; placing in said flow path a storage medium comprising porous high thermal conductivity heat resistance media; said media defining voids in order to facilitate flow of said fluid in a predetermined direction; said predetermined flow direction constituting a longitudinal direction; arrangement of said media constituting a packed bed; and efficiently responding to a decrease in load by enabling said flow path and providing at least a portion of the fluid exiting the gas turbine to said flow path; the method further comprising dimensions of said media and of said packed bed being selected such that a resultant back pressure to the gas turbine is at most a predetermined back pressure; wherein said particles comprise at least one of alumina, graphite, silica, quartz, or ceramic; wherein said media comprise particles; and wherein the dimensions of said particles are selected such that Biot number magnitude does not exceed 0.1; wherein a ratio of a characteristic dimension of said packed bed in the longitudinal direction to a characteristic dimension of said packed bed in a direction transverse to the longitudinal direction is at most 2.15; the characteristic dimension of said packed bed in the longitudinal direction being between 3.048 m and 4.572 m.
A polypeptide for delivering a therapeutic agent to an organelle of a cell, comprising an adenovirus penton base polypeptide, wherein: the penton base polypeptide comprises the penton base polypeptide recited in SEQ ID NO: 4, SEQ ID NO: 6, SEQ ID NO: 8, SEQ ID NO: 12, or SEQ ID NO: 20; or the penton base polypeptide consists of the penton base polypeptide recited in SEQ ID NO: 2, SEQ ID NO: 6, SEQ ID NO: 8, SEQ ID NO: 10, SEQ ID NO: 14, SEQ ID NO: 16, or SEQ ID NO: 18; or the penton base polypeptide is a human adenovirus type 5 penton base polypeptide comprising a Leu60Trp mutation; or the penton base polypeptide is a human adenovirus type 5 penton base polypeptide comprising a Lys375Glu mutation, a Va1449Met mutation, and a Pro469Ser mutation. the penton base polypeptide comprises the penton base polypeptide recited in SEQ ID NO: 4, SEQ ID NO: 6, SEQ ID NO: 8, SEQ ID NO: 12, or SEQ ID NO: 20; or the penton base polypeptide consists of the penton base polypeptide recited in SEQ ID NO: 2, SEQ ID NO: 6, SEQ ID NO: 8, SEQ ID NO: 10, SEQ ID NO: 14, SEQ ID NO: 16, or SEQ ID NO: 18; or the penton base polypeptide is a human adenovirus type 5 penton base polypeptide comprising a Leu60Trp mutation; or the penton base polypeptide is a human adenovirus type 5 penton base polypeptide comprising a Lys375Glu mutation, a Va1449Met mutation, and a Pro469Ser mutation.
System for detection of an error in an extracorporeal blood circulation of an extracorporeal blood treatment device, having at least one sensor (4, 5, 6) for detecting at least one state parameter characterising the extracorporeal blood circulation, at least one evaluation unit (18, 19, 20) for determining a first state parameter-evaluation criterion for a detection of at least one error in the extracorporeal blood circulation, at least one monitoring unit (13, 14, 15) for making a decision with regard to the presence of at least one error in the extracorporeal blood circulation and for generating a first error signal and for monitoring the detected state parameter in each case by using the first state parameter-evaluation criterion, wherein the system has at least one further evaluation unit, in order to determine at least one further state parameter-evaluation criterion, the system has at least one further monitoring unit (13, 14, 15), in order to make a decision with regard to the presence of an error in the extracorporeal blood circulation by using the at least one further state parameter-evaluation criterion and to generate at least one further error signal, the system has a combination unit, in order to combine the first error signal and the at least one further error signal into a combined error signal, and characterised in that the system is designed subject the first and the at least one further error signal in each case to a weighing, wherein the first error signal and the at least one further error signal are combined, by mathematically linking the weighted error signals.