mhurhangee/ep-ind-claims huggingface dataset:
A method for identifying passive intermodulation, PIM, at a base station in a wireless communication system, the method comprising: measuring the noise floor in a radio frequency, RF, channel of an uplink carrier, the uplink carrier being a carrier received from a wireless device by the base station during normal operation, wherein measuring the noise floor comprises one of (a) measuring the noise floor at an uplink carrier edge region, the edge region including at least one of a part of the RF channel of the uplink carrier where no signal energy is transmitted and a part of an adjacent RF channel of another uplink carrier where no signal energy is transmitted; (b) suppressing one or more downlink carriers associated with the uplink carrier; and (c) transmitting artificial traffic on a first downlink carrier that cause no uplink signal to be received on the uplink carrier; comparing the measured noise floor to a predetermined noise floor; and determining whether PIM is present based on a result of the comparison; wherein, in case of (c), the method further comprises repeating the measuring, comparing and determining. measuring the noise floor in a radio frequency, RF, channel of an uplink carrier, the uplink carrier being a carrier received from a wireless device by the base station during normal operation, wherein measuring the noise floor comprises one of (a) measuring the noise floor at an uplink carrier edge region, the edge region including at least one of a part of the RF channel of the uplink carrier where no signal energy is transmitted and a part of an adjacent RF channel of another uplink carrier where no signal energy is transmitted; (b) suppressing one or more downlink carriers associated with the uplink carrier; and (c) transmitting artificial traffic on a first downlink carrier that cause no uplink signal to be received on the uplink carrier; (a) measuring the noise floor at an uplink carrier edge region, the edge region including at least one of a part of the RF channel of the uplink carrier where no signal energy is transmitted and a part of an adjacent RF channel of another uplink carrier where no signal energy is transmitted; (b) suppressing one or more downlink carriers associated with the uplink carrier; and (c) transmitting artificial traffic on a first downlink carrier that cause no uplink signal to be received on the uplink carrier; comparing the measured noise floor to a predetermined noise floor; and determining whether PIM is present based on a result of the comparison; wherein, in case of (c), the method further comprises repeating the measuring, comparing and determining.
A method for determining a beam-specific timing advance for Round-Trip Time, RTT, estimation, comprising: receiving, at a first node, a plurality of beams transmitted by a second node on a wireless channel; selecting, by the first node, a first beam from the plurality of beams for transmitting a timing response; determining, by the first node, a timing statistic, a timing difference, and a timing advance for the first beam, wherein the timing difference comprises a difference between the timing statistic and an earliest time of arrival of the plurality of beams, and wherein the timing advance comprises a multiple of the timing difference; and transmitting, by the first node, the timing response for the first beam to the second node on the wireless channel, wherein the first node transmits the timing response after a time delay from the timing statistic of the first beam, wherein the time delay comprises a difference between a predetermined time delay and the timing advance. receiving, at a first node, a plurality of beams transmitted by a second node on a wireless channel; selecting, by the first node, a first beam from the plurality of beams for transmitting a timing response; determining, by the first node, a timing statistic, a timing difference, and a timing advance for the first beam, wherein the timing difference comprises a difference between the timing statistic and an earliest time of arrival of the plurality of beams, and wherein the timing advance comprises a multiple of the timing difference; and transmitting, by the first node, the timing response for the first beam to the second node on the wireless channel, wherein the first node transmits the timing response after a time delay from the timing statistic of the first beam, wherein the time delay comprises a difference between a predetermined time delay and the timing advance.
A method for detecting slippage when gripping an object with a gripper, in which - the gripper is provided with at least one acceleration sensor on a gripping surface of the gripper, wherein the acceleration sensor is integrated in a rigid main body and the main body, with the aid of an elastic material which supports the main body laterally, is integrated in the gripper so as to be capable of oscillation on the gripping surface such that, in the event of slippage of the object, said main body can be set in oscillation on the gripper only in a plane parallel to the gripping surface, - at least one sensor signal of the acceleration sensor is captured during a gripping process and filtered with one or more frequency filters in order to obtain a filtered sensor signal in a first frequency range, and - the filtered sensor signal or a value derived therefrom is compared with a threshold value (SW 1, SW 2) which, when exceeded, constitutes an indication of slippage of the object, wherein the first frequency range is selected such that oscillation frequencies of oscillations of the main body which occur during slippage of the object, lie within the first frequency range. - the gripper is provided with at least one acceleration sensor on a gripping surface of the gripper, wherein the acceleration sensor is integrated in a rigid main body and the main body, with the aid of an elastic material which supports the main body laterally, is integrated in the gripper so as to be capable of oscillation on the gripping surface such that, in the event of slippage of the object, said main body can be set in oscillation on the gripper only in a plane parallel to the gripping surface, - at least one sensor signal of the acceleration sensor is captured during a gripping process and filtered with one or more frequency filters in order to obtain a filtered sensor signal in a first frequency range, and - the filtered sensor signal or a value derived therefrom is compared with a threshold value (SW 1, SW 2) which, when exceeded, constitutes an indication of slippage of the object,
A surface-bonded laminate comprising: a fibrous web comprising fibers and having first and second oppositely facing major surfaces (112, 113); and, a substrate with first and second oppositely facing major surfaces 121, 122); wherein some fibers of the first major surface of the fibrous web are surface-bonded to the first major surface of the substrate, wherein fibers being surface-bonded to the first major surface of the substrate means that parts of fiber surfaces of fiber portions of fibers are melt-bonded to the first major surface of the substrate, in such a manner as to substantially preserve the original pre-bonded shape of first major surface of the substrate, and to substantially preserve at least some portions of first major surface of the substrate in an exposed condition, in the surface-bonded area. a fibrous web comprising fibers and having first and second oppositely facing major surfaces (112, 113); and, a substrate with first and second oppositely facing major surfaces 121, 122); wherein some fibers of the first major surface of the fibrous web are surface-bonded to the first major surface of the substrate, wherein fibers being surface-bonded to the first major surface of the substrate means that parts of fiber surfaces of fiber portions of fibers are melt-bonded to the first major surface of the substrate, in such a manner as to substantially preserve the original pre-bonded shape of first major surface of the substrate, and to substantially preserve at least some portions of first major surface of the substrate in an exposed condition, in the surface-bonded area.
A method for displaying operating states of units (9, 10) of a vehicle, in which - graphics data are generated by a control device, which data control a display device, such that a first graphic object is displayed with a representation of the vehicle in a first state, - the operating states of the vehicle units (9, 10) are detected and transmitted to the control device, - the control device checks whether information relating to an operating state is to be output, characterized in that - in the event of a positive result of the check the representation of the first graphics object is changed so that the vehicle is represented in a second state from a viewing angle, which is selected, so that the vehicle units (9, 10) are as far forward as possible in the representation of the vehicle from the perspective of a viewer, so that the vehicle unit (9, 10), regarding the operating state of which information is to be output, is arranged at the front in the representation of the vehicle, and - that a second graphic object is generated with a graphical representation of the vehicle unit (9, 10), which is displayed within the changed graphical representation of the vehicle, so that the arrangement of the second graphic object of the vehicle unit (9, 10) substantially corresponds in the first graphic object of the vehicle to the real arrangement of the vehicle unit (9, 10) in the vehicle. - graphics data are generated by a control device, which data control a display device, such that a first graphic object is displayed with a representation of the vehicle in a first state, - the operating states of the vehicle units (9, 10) are detected and transmitted to the control device, - the control device checks whether information relating to an operating state is to be output, - in the event of a positive result of the check the representation of the first graphics object is changed so that the vehicle is represented in a second state from a viewing angle, which is selected, so that the vehicle units (9, 10) are as far forward as possible in the representation of the vehicle from the perspective of a viewer, so that the vehicle unit (9, 10), regarding the operating state of which information is to be output, is arranged at the front in the representation of the vehicle, and - that a second graphic object is generated with a graphical representation of the vehicle unit (9, 10), which is displayed within the changed graphical representation of the vehicle, so that the arrangement of the second graphic object of the vehicle unit (9, 10) substantially corresponds in the first graphic object of the vehicle to the real arrangement of the vehicle unit (9, 10) in the vehicle.
A cultivation plate system for the detection of food product-contaminating microorganisms selected from the group consisting of Lactobacillus, Pediococcus, Pectinatus, Megasphaera, Enterobacterium, Bacillus or Campylobacter, comprising as separate entities: (a) a cultivation plate having a pH of 5.7 to 7.0 containing a nutrient base, 5-40 g/l di-, oligo- or polysaccharide, 5-30 g/l CaCO 3 in a colloidal form and a gelling agent (b) a stock solution of an enzyme in a dilution containing 10-100 units/ml, wherein the enzyme digests a di-, oligo- or polysaccharide to glucose. (a) a cultivation plate having a pH of 5.7 to 7.0 containing a nutrient base, 5-40 g/l di-, oligo- or polysaccharide, 5-30 g/l CaCO 3 in a colloidal form and a gelling agent (b) a stock solution of an enzyme in a dilution containing 10-100 units/ml, wherein the enzyme digests a di-, oligo- or polysaccharide to glucose.
An apparatus for providing an identity profile to a device, wherein said device is provisionable for communicating over a network using said identity profile, said apparatus comprising: an interface adapted for provisioned and non-provisioned communications with devices connected to said network, said devices having respective provisioning keys and provisioning device identifiers; and comprising at least one processor and code instructions which when executed on the least one processor, cause the at least one processor to implement the steps of: receiving, from a device by non-provisioned communications, a request for an identity profile, wherein said request comprises a respective IMEI of said device; obtaining, from a provisioning server, a security key for establishing a secure connection between said device and a profile issuer, wherein said security key is based on a provisioning key indexed to said respective IMEI; establishing a secure connection between said device and a profile issuer using A3 and/or A8 cryptography functions for authentication and key agreement, based on the security key provided by the provisioning server; and instructing said profile issuer to send said identity profile to said device over said secure connection established using said security key. an interface adapted for provisioned and non-provisioned communications with devices connected to said network, said devices having respective provisioning keys and provisioning device identifiers; and comprising at least one processor and code instructions which when executed on the least one processor, cause the at least one processor to implement the steps of: receiving, from a device by non-provisioned communications, a request for an identity profile, wherein said request comprises a respective IMEI of said device; obtaining, from a provisioning server, a security key for establishing a secure connection between said device and a profile issuer, wherein said security key is based on a provisioning key indexed to said respective IMEI; establishing a secure connection between said device and a profile issuer using A3 and/or A8 cryptography functions for authentication and key agreement, based on the security key provided by the provisioning server; and instructing said profile issuer to send said identity profile to said device over said secure connection established using said security key. receiving, from a device by non-provisioned communications, a request for an identity profile, wherein said request comprises a respective IMEI of said device; obtaining, from a provisioning server, a security key for establishing a secure connection between said device and a profile issuer, wherein said security key is based on a provisioning key indexed to said respective IMEI; establishing a secure connection between said device and a profile issuer using A3 and/or A8 cryptography functions for authentication and key agreement, based on the security key provided by the provisioning server; and instructing said profile issuer to send said identity profile to said device over said secure connection established using said security key.
A method comprising: by a processor: compiling source code of an application into an instrumented code for generating profile data of the application, wherein the profile data is to include memory profile data related to memory usage of the application; generating the profile data comprising the memory profile data of the application using the instrumented code; recompiling the application based on the profile data comprising the memory profile data of the application; characterised by further comprising identifying, by the processor, from the memory profile data of the application, data for storing in a non-volatile memory, NVM, that is addressable by a central processing unit to improve application performance during application startup; storing, by the processor, the data in the NVM; and using the data in the NVM during execution of the application. compiling source code of an application into an instrumented code for generating profile data of the application, wherein the profile data is to include memory profile data related to memory usage of the application; generating the profile data comprising the memory profile data of the application using the instrumented code; recompiling the application based on the profile data comprising the memory profile data of the application; characterised by further comprising identifying, by the processor, from the memory profile data of the application, data for storing in a non-volatile memory, NVM, that is addressable by a central processing unit to improve application performance during application startup; storing, by the processor, the data in the NVM; and using the data in the NVM during execution of the application.
A breathing apparatus comprising: an exhalation chamber comprising a first biasing member (410, 412) dividing said chamber into first and second variable chambers (406, 408), wherein said first variable chamber comprises an inlet port adapted for fluid communication with a user interface and an outlet port, wherein said second variable chamber comprises an inlet port and an outlet port; and an inhalation chamber comprising an inlet port in fluid communication with said outlet port of said second variable chamber, an outlet port in fluid communication with said user interface, and a second biasing member (436, 428); wherein said first biasing member (410, 412) is moveable from a first position to a second position in response to an exhaust flow from said inlet port of said first variable chamber, and wherein a volume of said first variable chamber is increased from a first volume to a second volume and a volume of said second variable chamber is decreased from a first volume to a second volume in response to said movement of said first biasing member; wherein said second biasing member (436, 428) is moveable from a first position to a second position in response to a pressurized flow from said outlet port of said second variable chamber to said inlet port of said inhalation chamber, and wherein a volume of said inhalation chamber is increased from a first volume to a second volume in response to said movement of said second biasing member. an exhalation chamber comprising a first biasing member (410, 412) dividing said chamber into first and second variable chambers (406, 408), wherein said first variable chamber comprises an inlet port adapted for fluid communication with a user interface and an outlet port, wherein said second variable chamber comprises an inlet port and an outlet port; and an inhalation chamber comprising an inlet port in fluid communication with said outlet port of said second variable chamber, an outlet port in fluid communication with said user interface, and a second biasing member (436, 428); wherein said first biasing member (410, 412) is moveable from a first position to a second position in response to an exhaust flow from said inlet port of said first variable chamber, and wherein a volume of said first variable chamber is increased from a first volume to a second volume and a volume of said second variable chamber is decreased from a first volume to a second volume in response to said movement of said first biasing member; wherein said second biasing member (436, 428) is moveable from a first position to a second position in response to a pressurized flow from said outlet port of said second variable chamber to said inlet port of said inhalation chamber, and wherein a volume of said inhalation chamber is increased from a first volume to a second volume in response to said movement of said second biasing member.
An isolated antibody or antigen binding fragment thereof that specifically binds to human or cyno CD47 and comprises: (a) a VH CDR1 sequence set forth in SEQ ID NO: 9, a VH CDR2 sequence set forth in SEQ ID NO: 11, a VH CDR3 sequence set forth in SEQ ID NO: 13, a VL CDR1 sequence set forth in SEQ ID NO: 15, a VL CDR2 sequence set forth in SEQ ID NO: 17, and a VL CDR3 sequence set forth in SEQ ID NO: 19; or (b) a VH CDR1 sequence set forth in SEQ ID NO: 10, a VH CDR2 sequence set forth in SEQ ID NO: 12, a VH CDR3 sequence set forth in SEQ ID NO: 14, a VL CDR1 set forth in SEQ ID NO: 16, a VL CDR2 sequence set forth in SEQ ID NO: 18, and a VL CDR3 sequence set forth in SEQ ID NO: 20. (a) a VH CDR1 sequence set forth in SEQ ID NO: 9, a VH CDR2 sequence set forth in SEQ ID NO: 11, a VH CDR3 sequence set forth in SEQ ID NO: 13, a VL CDR1 sequence set forth in SEQ ID NO: 15, a VL CDR2 sequence set forth in SEQ ID NO: 17, and a VL CDR3 sequence set forth in SEQ ID NO: 19; or (b) a VH CDR1 sequence set forth in SEQ ID NO: 10, a VH CDR2 sequence set forth in SEQ ID NO: 12, a VH CDR3 sequence set forth in SEQ ID NO: 14, a VL CDR1 set forth in SEQ ID NO: 16, a VL CDR2 sequence set forth in SEQ ID NO: 18, and a VL CDR3 sequence set forth in SEQ ID NO: 20.
Gas chromatograph having a miniaturised chromatograph module which is arranged in a housing, preferably a housing of portable construction, and which has a support plate and, arranged thereon, an injector, a separating column, which is provided with a heater, and a detector as well as various capillaries for connecting those functional parts and for supplying and discharging carrier gas and sample gas, wherein there is provided on the support plate a connection block for connecting carrier gas and sample gas supply and discharge lines that are external to the module to the capillaries, and wherein there is further located on the support plate a microprocessor-based electronic circuit for controlling the injector and the heater of the separating column, for processing and optionally analysing the measurement signals generated by the detector and for communicating with a computer external to the module, characterised in that in the housing there are additionally arranged a carrier gas container, a carrier gas pressure-reducing valve, a first sample gas pressure-reducing valve, an electrically controllable first sample gas valve, a first sample gas inlet port and an outlet port for carrier gas and sample gas as well as a computer having a monitor, wherein the carrier gas container, the first sample gas inlet port, the first sample gas valve and the outlet port are connected to the corresponding supply and discharge capillaries of the chromatograph module, with the carrier gas container being connected thereto via the carrier gas pressure-reducing valve, the first sample gas inlet port via the first sample gas pressure-reducing valve and the first sample gas valve and the outlet port in each case via the connection block, and wherein a manifold is provided, which manifold is sealingly detachably connected to the connection block of the chromatograph module and via which manifold all lines leading to and from the chromatograph module that are external to the module are connected to the chromatograph module, and wherein the first sample gas valve is arranged inside the manifold, and wherein, furthermore, the computer is configured for communicating with the chromatograph module and for controlling the latter as well as for analysing and displaying and optionally storing the measured values generated by the chromatograph module.