mhurhangee/ep-ind-claims huggingface dataset:
Device for filling a tube with particulate filling material, comprising at least one fall arrester element that is fastened to a carrier and is introducible together with the carrier into the tube to be filled, wherein the at least one fall arrester element carries a net structure that is permeable to the filling-material particles and has a maximum radial diameter d max corresponding to the tube inside diameter d I ± 20%, wherein the net structure comprises a multiplicity of elastic net elements and a filling-material deflector is arranged above the net structure; and wherein the net structure comprises a central body (33, 330) which carries the net elements; characterized in that the filling-material deflector radially enclosing the carrier is arranged above the at least one fall arrester element, said filling-material deflector having, in vertical projection, a maximum diameter d max which corresponds to 5 to 50% of the tube inside diameter d I of the tube to be filled and is larger than the radial diameter of the central body (33, 330), wherein the filling-material deflector is in the form of an umbrella-shaped, substantially radially symmetrical structure with outwardly substantially uniformly sloping lateral faces and protects the central region of the at least one fall arrester element from being struck directly by filling-material particles during a filling operation, wherein the central region comprises the body (33, 330) and the inner portion of the net elements via which it is fastened to the body (33, 330).
Mixer for a device for selective catalytic reduction of exhaust gases from internal combustion engines, for uniform distribution of a reducing agent in the exhaust gas stream that is introduced into said exhaust gas stream at the catalyst inlet, wherein said mixer comprises a structure of mixer elements through which the mixture of exhaust gas and reducing agent is to flow and which are adapted for direct electrical heating with an electric current flowing through them due to their electrical resistance, characterized in that said structure of mixer elements is arranged substantially ring-shaped and that said individual mixer elements are electrically interconnected in series so as to form a heating circuit.
An antibody or antigen-binding fragment thereof which (i) binds to a peptide having the amino acid sequence TEDEVQSYPSKHDYV (SEQ ID NO: 5) or EVQSYPSKHDYV (SEQ ID NO: 6) and/or (ii) binds to claudin 18.2 (CLDN18.2), wherein said antibody or antigen-binding fragment thereof binds to CLDN18.2 by binding at least to an epitope within CLDN18.2 having the amino acid sequence TEDEVQSYPSKHDYV (SEQ ID NO: 5) or EVQSYPSKHDYV (SEQ ID NO: 6). (i) binds to a peptide having the amino acid sequence TEDEVQSYPSKHDYV (SEQ ID NO: 5) or EVQSYPSKHDYV (SEQ ID NO: 6) and/or (ii) binds to claudin 18.2 (CLDN18.2), wherein said antibody or antigen-binding fragment thereof binds to CLDN18.2 by binding at least to an epitope within CLDN18.2 having the amino acid sequence TEDEVQSYPSKHDYV (SEQ ID NO: 5) or EVQSYPSKHDYV (SEQ ID NO: 6).
An umbilical splint adapted to shape an umbilicus by applying pressure to a tissue of the umbilicus, the umbilical splint comprising: an insertion portion extending in a longitudinal direction and terminating at a insertion end for insertion into an umbilicus, the insertion portion comprising: a bulbous section having a bulbous circumference, the bulbous section near the insertion end; and an external flange coupled to the insertion portion, the external flange comprising: an underside surface facing the insertion end of the insertion portion, and an exterior surface, opposite the underside surface, characterized in that the insertion portion further comprises a retaining section having a retaining circumference less than the bulbous circumference, the bulbous section is disposed between the retaining section and the insertion end, and the retaining section is configured to engage a lip of the umbilicus such that the insertion portion is retained within the umbilicus. an insertion portion extending in a longitudinal direction and terminating at a insertion end for insertion into an umbilicus, the insertion portion comprising: a bulbous section having a bulbous circumference, the bulbous section near the insertion end; and an external flange coupled to the insertion portion, the external flange comprising: an underside surface facing the insertion end of the insertion portion, and an exterior surface, opposite the underside surface, characterized in that a bulbous section having a bulbous circumference, the bulbous section near the insertion end; and an external flange coupled to the insertion portion, the external flange comprising: an underside surface facing the insertion end of the insertion portion, and an exterior surface, opposite the underside surface, an underside surface facing the insertion end of the insertion portion, and an exterior surface, opposite the underside surface, the insertion portion further comprises a retaining section having a retaining circumference less than the bulbous circumference, the bulbous section is disposed between the retaining section and the insertion end, and the retaining section is configured to engage a lip of the umbilicus such that the insertion portion is retained within the umbilicus.
A spin-on fluid treatment device for removable installation to filter head, comprising a housing, a cover piece forming a top surface said cover piece having an internally threaded bore having a thread, at least one inlet orifice radially removed from said threaded bore, and an axial seal surrounding said at least one inlet orifice; said housing comprising a filter element comprising an outlet tube and a treatment medium arranged inside said housing to treat fluids entering through said at least one inlet orifice and leaving through said outlet tube; wherein said outlet tube is at least partially disposed inside said threaded bore in a concentric position, and wherein said thread of said threaded bore does not reach all the way to said top surface of the spin-on fluid treatment device, thereby leaving a portion of unthreaded surface. wherein said outlet tube is at least partially disposed inside said threaded bore in a concentric position, and wherein said thread of said threaded bore does not reach all the way to said top surface of the spin-on fluid treatment device, thereby leaving a portion of unthreaded surface.
Device for capacitive detection of an object comprising a set of capacitive detection electrodes (202 1 -202 n), each carrying out a capacitive detection for a detection location of a detection surface, each detection electrode (202 1 -202 n) comprising at least one first (204 1 -204 n) and one second (206 1 -206 n) independent electrodes, called measurement electrodes, said device also comprising: - first detection electronics (100 1) for the first measurement electrodes (204 1 -204 n) of said assembly, forming with said first measurement electrodes (204 1 -204 n) a first detection channel, to polarize said first measurement electrodes (204 1 -204 n) at an alternating potential, called excitation potential, different from a ground potential, and measure a signal relative to a capacitance, called electrode-object capacitance, between each first measurement electrode (204 1 -204 n) and said object, and - second detection electronics (100 2) for the second measurement electrodes (206 1 -206 n) of said assembly, forming with said second measurement electrodes (206 1 -206 n) a second detection channel, to polarize said second measurement electrodes (206 1 -206 n) at said excitation potential and measure a signal relative to an electrode-object capacitance between each second measurement electrode (206 1 -206 n) and said object. - first detection electronics (100 1) for the first measurement electrodes (204 1 -204 n) of said assembly, forming with said first measurement electrodes (204 1 -204 n) a first detection channel, to polarize said first measurement electrodes (204 1 -204 n) at an alternating potential, called excitation potential, different from a ground potential, and measure a signal relative to a capacitance, called electrode-object capacitance, between each first measurement electrode (204 1 -204 n) and said object, and - second detection electronics (100 2) for the second measurement electrodes (206 1 -206 n) of said assembly, forming with said second measurement electrodes (206 1 -206 n) a second detection channel, to polarize said second measurement electrodes (206 1 -206 n) at said excitation potential and measure a signal relative to an electrode-object capacitance between each second measurement electrode (206 1 -206 n) and said object.
An apparatus, comprising: a plurality of microcode controlled state machines, at least one of the plurality of microcode controlled state machines being configured to generate first statistical data measured over each of a plurality of time intervals of a first time granularity based on network data included in each of a plurality of data flows traversing the at least one of the plurality of microcode controlled state machines; the apparatus being characterized by data reduction logic configured to receive the first statistical data, and to obtain second statistical data having a volume reduced from a volume of the first statistical data based on performance of a mathematical operation on the first statistical data, wherein the second statistical data is associated with each of plurality of time intervals of a second time granularity, the first time granularity being finer than the second time granularity; and push logic configured to push the second statistical data across a network independent of a real-time request from the network. a plurality of microcode controlled state machines, at least one of the plurality of microcode controlled state machines being configured to generate first statistical data measured over each of a plurality of time intervals of a first time granularity based on network data included in each of a plurality of data flows traversing the at least one of the plurality of microcode controlled state machines; the apparatus being characterized by data reduction logic configured to receive the first statistical data, and to obtain second statistical data having a volume reduced from a volume of the first statistical data based on performance of a mathematical operation on the first statistical data, wherein the second statistical data is associated with each of plurality of time intervals of a second time granularity, the first time granularity being finer than the second time granularity; and push logic configured to push the second statistical data across a network independent of a real-time request from the network.
A panel for a sectional tank, comprising a first mating surface having provided thereon a gasket arrangement for providing a substantially fluid-tight seal between the first mating surface and a corresponding second mating surface, the gasket arrangement comprising: a first member and a second member, the second member being arranged at least in part to provide a fluid-tight seal about the first member so as to inhibit contamination of the first member; wherein the second member is capable of deforming the first member while maintaining the fluid-tight seal when compressed; characterised in that the first member is more compressible than the second member and the second member is arranged as a coating on at least part of the first mating surface. a first member and a second member, the second member being arranged at least in part to provide a fluid-tight seal about the first member so as to inhibit contamination of the first member; wherein the second member is capable of deforming the first member while maintaining the fluid-tight seal when compressed; characterised in that the first member is more compressible than the second member and the second member is arranged as a coating on at least part of the first mating surface.
A method comprising: determining, by a provider edge, PE, device (12A, 300) of a plurality of PE devices configured with an Ethernet Virtual Private Network, EVPN, instance reachable by an Ethernet segment, that connectivity from the PE device to the EVPN instance is lost, wherein the Ethernet segment connects the plurality of PE devices to an access node of an access network that is multi-homed to the plurality of PE devices over the Ethernet segment, wherein the access node is connected by respective layer 2, L2, circuits to the plurality of PE devices, and wherein the access node is connected to a customer edge, CE, device; marking, by the PE device and in response to determining that connectivity from the PE device to the EVPN instance is lost, a customer-facing interface for the L2 circuit of the PE device as having a down status; and sending, by the PE device and to the access node in response to marking the interface, interface status information including information specifying status of the customer-facing interface of the PE device. determining, by a provider edge, PE, device (12A, 300) of a plurality of PE devices configured with an Ethernet Virtual Private Network, EVPN, instance reachable by an Ethernet segment, that connectivity from the PE device to the EVPN instance is lost, wherein the Ethernet segment connects the plurality of PE devices to an access node of an access network that is multi-homed to the plurality of PE devices over the Ethernet segment, wherein the access node is connected by respective layer 2, L2, circuits to the plurality of PE devices, and wherein the access node is connected to a customer edge, CE, device; marking, by the PE device and in response to determining that connectivity from the PE device to the EVPN instance is lost, a customer-facing interface for the L2 circuit of the PE device as having a down status; and sending, by the PE device and to the access node in response to marking the interface, interface status information including information specifying status of the customer-facing interface of the PE device.
Process for dehydrogenating and methylating silanes, wherein methyl chloride is reacted with a silane selected from the group consisting of SiH 4, H 2 SiMe 2, H 2 SiMeCl, H 3 SiMe, H 3 SiCl and HSiMe 2 Cl, in the presence of at least one ammonium and/or phosphonium salt at a temperature in the range of 70-350°C.
A system for controlling a temperature within an interior volume of a cargo trailer adapted to transport perishable goods, comprising: a fluid distribution assembly for channeling a flow of cryogenic cooling fluid into the cargo trailer interior volume to facilitate adjusting a temperature within the interior volume; a cargo access assembly for restricting access into the interior volume; and a monitoring system operatively coupled to the fluid distribution assembly for controlling a flow of cryogenic fluid into the interior volume, the monitoring system comprising: at least one sensor for sensing an environmental parameter of the cargo trailer; and a controller coupled to the sensor and to the fluid distribution assembly and to the cargo access assembly, the controller for receiving a request from an operator to enter the interior volume, receiving, from the at least one sensor, a monitoring signal indicative of the sensed environmental parameter, determining an environmental condition of the cargo trailer as a function of the environmental parameter, and operating the cargo access assembly to restrict access to the interior volume and providing a notification signal if the determined environmental condition is different than a predefined environmental condition. a fluid distribution assembly for channeling a flow of cryogenic cooling fluid into the cargo trailer interior volume to facilitate adjusting a temperature within the interior volume; a cargo access assembly for restricting access into the interior volume; and a monitoring system operatively coupled to the fluid distribution assembly for controlling a flow of cryogenic fluid into the interior volume, the monitoring system comprising: at least one sensor for sensing an environmental parameter of the cargo trailer; and a controller coupled to the sensor and to the fluid distribution assembly and to the cargo access assembly, the controller for receiving a request from an operator to enter the interior volume, receiving, from the at least one sensor, a monitoring signal indicative of the sensed environmental parameter, determining an environmental condition of the cargo trailer as a function of the environmental parameter, and operating the cargo access assembly to restrict access to the interior volume and providing a notification signal if the determined environmental condition is different than a predefined environmental condition. at least one sensor for sensing an environmental parameter of the cargo trailer; and a controller coupled to the sensor and to the fluid distribution assembly and to the cargo access assembly, the controller for receiving a request from an operator to enter the interior volume, receiving, from the at least one sensor, a monitoring signal indicative of the sensed environmental parameter, determining an environmental condition of the cargo trailer as a function of the environmental parameter, and operating the cargo access assembly to restrict access to the interior volume and providing a notification signal if the determined environmental condition is different than a predefined environmental condition.
A method for determining a compensation coefficient for use in a method for temperature drift compensation of a temperature measurement device comprising a thermocouple and a thermistor for reference junction compensation, the method comprising: making a resistance temperature table of the thermistor; acquiring an analog voltage generated in the thermistor by a constant current source; converting the acquired analog voltage into a digital count; calculating a temperature difference between each temperature in the RT table and a predetermined reference room temperature; setting/adjusting a compensation coefficient within a range between 0.5 and 1.5; calculating compensation factors by multiplying the absolute value of the calculated temperature differences by the compensation coefficient; calculating a compensated digital count using the converted digital count and a corresponding calculated compensation factor; and measuring change in the temperature measured by the thermocouple according to change in temperature of the surroundings; and reiterating the steps of setting/adjusting a compensation coefficient, calculating compensation factors, calculating a compensated digital count, and measuring change in the temperature until the measured temperature is within a target range. making a resistance temperature table of the thermistor; acquiring an analog voltage generated in the thermistor by a constant current source; converting the acquired analog voltage into a digital count; calculating a temperature difference between each temperature in the RT table and a predetermined reference room temperature; setting/adjusting a compensation coefficient within a range between 0.5 and 1.5; calculating compensation factors by multiplying the absolute value of the calculated temperature differences by the compensation coefficient; calculating a compensated digital count using the converted digital count and a corresponding calculated compensation factor; and measuring change in the temperature measured by the thermocouple according to change in temperature of the surroundings; and reiterating the steps of setting/adjusting a compensation coefficient, calculating compensation factors, calculating a compensated digital count, and measuring change in the temperature until the measured temperature is within a target range.
A multiple subcarriers modulator for a backscatter device comprised in a backscatter communication system, the modulator comprising: an antenna switch; an impedance matrix comprising a number of impedances (Z1, Z2, Z3); a first modulator configured to generate a first modulated signal by modulating a first data stream with a first subcarrier having a first frequency; a second modulator configured to generate a second modulated signal by modulating a second data stream with a second subcarrier having a second frequency; a summing circuit configured to generate a control signal by combining the first and second modulated signals; a switch controller configured to control the antenna switch such that one of the impedance in the impedance matrix is connected to an antenna based on the control signal. an antenna switch; an impedance matrix comprising a number of impedances (Z1, Z2, Z3); a first modulator configured to generate a first modulated signal by modulating a first data stream with a first subcarrier having a first frequency; a second modulator configured to generate a second modulated signal by modulating a second data stream with a second subcarrier having a second frequency; a summing circuit configured to generate a control signal by combining the first and second modulated signals; a switch controller configured to control the antenna switch such that one of the impedance in the impedance matrix is connected to an antenna based on the control signal.
Method for identifying a distinct device within a given range distance of a head-mounted device, the head-mounted device comprises: - receiving means adapted to receive wireless signals, - a memory adapted to store data, - a function controller adapted to control at least one function of the head-mounted device, and - at least one controllable active optical lens, the method comprising: - a tag data receiving step during which tag data identifying at least one electronic wireless tag placed on the distinct device are received by the receiving means of the head-mounted device, - a storing step during which the received data comprising the tag data are stored in the memory of the head-mounted device, - an identification step during which the distinct device is identified based on the stored data, characterized in that the method further comprises: - a function modifying step during which said at least one function of the head-mounted device is modified based on the stored data, wherein the function of the head-mounted device modified during the function modifying step is an optical function of the active optical lens. - receiving means adapted to receive wireless signals, - a memory adapted to store data, - a function controller adapted to control at least one function of the head-mounted device, and - at least one controllable active optical lens, the method comprising: - a tag data receiving step during which tag data identifying at least one electronic wireless tag placed on the distinct device are received by the receiving means of the head-mounted device, - a storing step during which the received data comprising the tag data are stored in the memory of the head-mounted device, - an identification step during which the distinct device is identified based on the stored data, - a tag data receiving step during which tag data identifying at least one electronic wireless tag placed on the distinct device are received by the receiving means of the head-mounted device, - a storing step during which the received data comprising the tag data are stored in the memory of the head-mounted device, - an identification step during which the distinct device is identified based on the stored data, - a function modifying step during which said at least one function of the head-mounted device is modified based on the stored data,